232 Commits

Author SHA1 Message Date
7ff204bf3d Clarify v0.9.0 import and collection migration guidance 2026-10-24 14:48:21 +00:00
b3ec860fac Document the ConfigKit v0.9.0 release 2026-10-24 14:44:58 +00:00
435dea102f Retire the completed remediation record 2026-10-24 14:41:56 +00:00
ea46001f78 Reuse document indexes for collection policy checks 2026-10-24 14:17:09 +00:00
a0e5693d07 Share indexed fallback locations during effective projection 2026-10-24 14:13:52 +00:00
5c5f2af6cc Limit inheritance policy work to the relevant scope 2026-10-24 14:10:44 +00:00
8253993005 Delete CLI metadata through the replaced subtree 2026-10-24 14:05:42 +00:00
d0848290da Keep sequence projection storage proportional to assigned items 2026-10-24 14:04:26 +00:00
e94a0642ff Keep global registrations out of item-local composition 2026-10-24 13:59:34 +00:00
571d063675 Retire the completed sequence roadmap and implementation plan 2026-10-24 13:56:19 +00:00
d0a605afbb Document the internal complexity refactor roadmap 2026-10-24 02:02:43 +00:00
7a83704f43 Clarify discovery contexts and filename selection boundaries 2026-10-24 02:00:17 +00:00
ac5bf29ddc Settle discovery slug and custom path rules 2026-10-24 01:58:48 +00:00
cce8356b8e Settle empty discovery searches and filename selections 2026-10-24 01:55:02 +00:00
b746dcc609 Settle discovery behavior when no main file is found 2026-10-24 01:51:08 +00:00
9c32b8d3b5 Record sequence algorithm audit findings 2026-10-24 01:46:55 +00:00
c73daf891d Settle discovery directory resolution errors 2026-10-24 01:39:25 +00:00
ae038a5165 Settle discovery presets and directory helpers 2026-10-24 01:33:53 +00:00
367bbaaa1b Clarify sequence operation history in the configuration contract 2026-10-24 01:21:11 +00:00
fafc28421f Build item policies without repeated accumulated copies 2026-10-24 01:20:12 +00:00
1a673753b9 Preserve child identity in inheritance history 2026-10-24 01:17:00 +00:00
988e49bb09 Define discovery filename groups and search presets 2026-10-24 01:16:42 +00:00
5bb4f364b7 Track the main version through sequence movement 2026-10-24 01:11:28 +00:00
af84107905 Document composable configuration discovery 2026-10-24 01:00:08 +00:00
f94dd9b961 Order CLI metadata history after inheritance 2026-10-24 00:55:21 +00:00
146e7e56d9 Retire obsolete collection identity before replacement agreement 2026-10-24 00:51:10 +00:00
d2e20a304a Record sequence feature integration audit findings 2026-10-24 00:38:04 +00:00
8d40983271 Avoid repeated prefix scans when projecting item policies 2026-10-24 00:19:14 +00:00
25cf7ce05c Clarify final identity validation and overlay semantics 2026-10-24 00:16:53 +00:00
57edb8ec19 Identify conflicting sequence registration positions 2026-10-24 00:15:23 +00:00
42663cf07c Retain main version warnings in layered loads 2026-10-24 00:13:54 +00:00
085b57eeb6 Validate final identity fields as application payload 2026-10-24 00:12:31 +00:00
dcf0379e02 Apply nested collection operations when copying mappings 2026-10-24 00:11:21 +00:00
8ecfedc91b Reset inherited YAML identity on actual replacement 2026-10-24 00:07:22 +00:00
f7624ae92a Project incoming source destinations through tier operations 2026-10-24 00:05:24 +00:00
a035df9845 Preserve tier sequence operations in source history 2026-10-24 00:01:46 +00:00
e6598810e0 Project sequence origins from incoming to final item paths 2026-10-23 23:51:33 +00:00
f8cbb2ed87 Preserve retained input presence in nested CLI overrides 2026-10-23 23:47:21 +00:00
af80ccb90c Record sequence implementation review findings 2026-10-23 23:30:27 +00:00
0be7cdb00e Audit sequence identity scaling and lifecycle 2026-10-23 22:03:16 +00:00
e01aeca761 Reconcile sequence identity documentation 2026-10-23 21:57:35 +00:00
d4133f23f5 Add integrated sequence catalog examples 2026-10-23 21:50:10 +00:00
5af71a7533 Validate final registered sequence identities 2026-10-23 21:43:54 +00:00
41b5dff69b Apply CLI overrides after typed decoding 2026-10-23 21:37:13 +00:00
ecfb78d84d Prepare post-decode CLI inspection context 2026-10-23 21:20:19 +00:00
041c4cff02 Apply CLI overrides to decoded configuration 2026-10-23 21:11:54 +00:00
23f22d8982 Prepare reusable CLI override batches 2026-10-23 21:02:46 +00:00
0023617a07 Expose sequence identity registrations through the facade 2026-10-23 20:59:23 +00:00
33a51606da Resolve inheritance between identified records 2026-10-23 20:48:46 +00:00
268fd03579 Prepare reusable inheritance scope execution 2026-10-23 20:32:10 +00:00
9d4d2e2a17 Build identified record inheritance graphs 2026-10-23 20:23:09 +00:00
36ff9170b7 Apply collection policies during sibling inheritance 2026-10-23 20:19:05 +00:00
9e75496664 Prepare collection policy transport through inheritance 2026-10-23 20:04:06 +00:00
80d8c1dc82 Preserve nested collection policy ownership 2026-10-23 19:56:06 +00:00
acd9e9a9fa Integrate collection policies across layered assembly 2026-10-23 19:49:12 +00:00
89a9684f0d Activate selected overlay collection policies 2026-10-23 19:30:48 +00:00
9a7027a04c Activate ordinary source collection declarations 2026-10-23 19:12:39 +00:00
dfeaf90320 Integrate policy-aware item scopes 2026-10-23 18:55:03 +00:00
d03e56398b Resolve collection identity during strict composition 2026-10-23 18:39:04 +00:00
628fc53d2c Separate underlay acquisition from composition 2026-10-23 18:22:37 +00:00
5fec16a768 Separate input acquisition from composition 2026-10-23 18:15:01 +00:00
f6b02dec03 Project sequence evidence through item mappings 2026-10-23 18:07:15 +00:00
7b04dc6a50 Extend history replay for mapped sequence items 2026-10-23 17:55:45 +00:00
12fdf0d331 Implement shared sequence operations 2026-10-23 17:49:05 +00:00
b202dd187f Track collection policy ownership 2026-10-23 14:16:22 +00:00
0314e587b6 Reconcile collection declarations and modes 2026-10-23 14:07:07 +00:00
9d7635d1e4 Parse collection sequence declarations 2026-10-23 14:01:39 +00:00
298e70b552 Add dynamic sequence identity selectors 2026-10-23 13:55:25 +00:00
64c51647f0 Add shared sequence identity primitives 2026-10-23 13:49:22 +00:00
bc6b977585 Split the sequence implementation into smaller stages 2026-10-23 13:40:29 +00:00
d06aae5461 Plan sequence identity and combination implementation 2026-10-23 12:56:23 +00:00
4f941f8ba4 Clarify sequence policy interactions and rename the roadmap 2026-10-23 12:20:18 +00:00
9a49833339 Remove the completed operator convention audit 2026-10-23 12:17:29 +00:00
749cf6868c Settle the sequence identity registration API 2026-10-23 12:09:44 +00:00
a5f0b92ee9 Add dynamic identity constraints to the sequence roadmap 2026-10-23 01:56:00 +00:00
6ec23b2de1 Extend collection inheritance architecture to identified sequences 2026-10-23 01:42:32 +00:00
3298eb916c Settle how sequence inheritance references compose 2026-10-23 01:40:37 +00:00
40430e787c Add identified record inheritance to the sequence roadmap 2026-10-23 01:31:22 +00:00
f434fa159f Align architecture policy with collection and CLI decisions 2026-10-23 01:12:11 +00:00
8ddf73ede3 Accept collection policy and CLI lifecycle decisions 2026-10-23 01:09:24 +00:00
844a15a3cb Consolidate the sequence roadmap around the settled design 2026-10-23 00:11:50 +00:00
58f4c39d6f Settle sequence identity declarations without values 2026-10-23 00:04:55 +00:00
8a54cecd1d Settle nested sequence policy ownership and record review findings 2026-10-23 00:02:26 +00:00
0e430e8077 Allow lower-tier identity during strict composition 2026-10-22 23:53:48 +00:00
26caa6024e Settle persistent sequence operation policy 2026-10-22 23:47:50 +00:00
8691a93ebf Settle CLI ordering before application resolution 2026-10-22 23:41:06 +00:00
c563f80934 Record remaining sequence lifecycle decisions 2026-10-22 15:45:21 +00:00
27797d2392 Settle sequence inheritance and lifecycle coverage 2026-10-22 15:16:42 +00:00
6a4e57e5d3 Settle sequence validation and absent value behavior 2026-10-22 14:47:00 +00:00
29f94d89e1 Settle sequence mode names and identity-based defaults 2026-10-22 14:39:40 +00:00
12f6045da0 Settle sequence combination scope and ordering 2026-10-22 14:08:55 +00:00
6eb80b06e3 Settle sequence identity definitions and policy lifetime 2026-10-22 13:28:18 +00:00
86feb6d755 Settle collection declaration syntax in the sequence roadmap 2026-10-21 14:00:02 +00:00
8bf49f6ea6 Include overlay author controls in the sequence proposal 2026-10-20 14:08:57 +00:00
f3d0fe6411 Record final identity guarantees for application registrations 2026-10-20 14:03:26 +00:00
cba3a0efb0 Record whole-record sequence replacement and application identity constraints 2026-10-20 13:57:19 +00:00
b58cd75c98 Draft sequence identity and layered append proposal 2026-10-20 13:48:54 +00:00
c530a989df Audit operator conventions against Ansible 2026-10-20 13:28:21 +00:00
2baf14d9a5 Retire completed import integration remediation 2026-10-20 04:11:54 +00:00
6903c9e51a Clarify empty path import inspection evidence 2026-10-20 01:06:15 +00:00
31e10af9cb Clarify scheduled provenance and history ordering 2026-10-20 01:05:34 +00:00
0d841d9d73 Resolve contained symlinks in import directory prefixes 2026-10-20 01:04:31 +00:00
4bcefbc9d4 Record import integration audit findings 2026-10-20 00:38:04 +00:00
91db99b967 Retire completed import discovery plans 2026-10-20 00:32:11 +00:00
5747ec49c6 Count import depth only for selected sources 2026-10-20 00:30:35 +00:00
d3a714a1cb Validate complete import depth numbers 2026-10-20 00:27:55 +00:00
7f8ad81065 Track active symlink expansions precisely 2026-10-20 00:26:30 +00:00
75da54150f Resolve native imports beneath nested roots 2026-10-20 00:23:55 +00:00
38fb315415 Check item version ownership at effective paths 2026-10-20 00:22:43 +00:00
1c79ec3aa1 Preserve native import alias identity 2026-10-20 00:20:38 +00:00
01e1b2fc2d Record import discovery review findings 2026-10-20 00:03:23 +00:00
15943e233c Record completed import roadmap 2026-10-19 21:23:54 +00:00
f6a6b0184b Finalize import discovery documentation and audits 2026-10-19 21:23:47 +00:00
898035d83a Record prompt catalog example completion 2026-10-19 21:15:53 +00:00
de3666aed3 Expand prompt catalog discovery example 2026-10-19 21:15:47 +00:00
c00811da2e Record lifecycle audit completion 2026-10-19 21:13:29 +00:00
55abcf8340 Audit scheduled import and inheritance lifecycles 2026-10-19 21:13:21 +00:00
9d7c79cf0b Record public import API completion 2026-10-19 21:06:39 +00:00
24131617c7 Expose import defaults and selection evidence 2026-10-19 21:06:31 +00:00
05b67cbfcf Record empty import evidence completion 2026-10-19 20:57:53 +00:00
e433988962 Retain empty optional import selection evidence 2026-10-19 20:57:41 +00:00
05a28d1178 Record final import wiring completion 2026-10-19 20:51:01 +00:00
1e5bffc0e6 Wire final import declarations through loading 2026-10-19 20:50:47 +00:00
f5a689b578 Record glob discovery completion 2026-10-19 20:38:48 +00:00
e4abff4164 Filter and account final glob candidates 2026-10-19 20:38:42 +00:00
1a8f1cc3a5 Record directory link discovery completion 2026-10-19 20:29:36 +00:00
9b99463187 Follow links safely during directory discovery 2026-10-19 20:29:20 +00:00
f69fa24b40 Record recursive directory search completion 2026-10-19 20:18:44 +00:00
77d97296ea Add recursive directory search with depth limits 2026-10-19 20:18:39 +00:00
032679bf34 Record shallow directory selection completion 2026-10-19 20:13:39 +00:00
55a59de6db Select shallow directory import sources 2026-10-19 20:13:33 +00:00
a0d13962bd Record named import selection completion 2026-10-19 20:08:05 +00:00
5f33e1e90c Select named imports before source admission 2026-10-19 20:07:54 +00:00
b750b0fec6 Record private import parser completion 2026-10-19 20:02:12 +00:00
b498e5bee5 Define private import defaults and declaration parsing 2026-10-19 20:02:05 +00:00
ba577429e6 Record underlay group scheduling completion 2026-10-19 19:53:08 +00:00
014b99504b Schedule underlay groups as dependency forests 2026-10-19 19:53:01 +00:00
263dd2f1bd Record item scope scheduling completion 2026-10-19 19:39:30 +00:00
af43d6f438 Schedule item-local import scopes 2026-10-19 19:39:19 +00:00
a4cbd6390e Record ordinary import scheduling completion 2026-10-19 19:29:52 +00:00
5ed0f55970 Schedule ordinary import contributions by dependency 2026-10-19 19:29:35 +00:00
91ab37a39d Record import graph completion 2026-10-19 17:34:45 +00:00
fbe9ae6d8b Retain import inclusion graph during acquisition 2026-10-19 17:34:21 +00:00
1aa121df71 Record scheduled inheritance completion 2026-10-19 17:25:32 +00:00
6e40c166d6 Schedule sibling inheritance by dependency readiness 2026-10-19 17:25:27 +00:00
a56d4691ff Record inheritance graph groundwork 2026-10-19 15:18:37 +00:00
2718fbb8fe Separate inheritance graph analysis and application 2026-10-19 15:18:25 +00:00
2d52421919 Record deterministic scheduler completion 2026-10-19 15:11:42 +00:00
167fcd475f Add deterministic dependency scheduler 2026-10-19 15:11:28 +00:00
aa93aeda3f Plan import discovery and shared dependency ordering 2026-10-19 14:33:01 +00:00
94381a67fd Record accepted import architecture decisions 2026-10-19 14:24:19 +00:00
c26b34147b Clarify import candidate identity, accounting, and inspection 2026-10-19 14:15:01 +00:00
c9f9c98fbe Settle import validation and require recursion for depth 2026-10-19 14:05:18 +00:00
f6bf4454b0 Settle import selector lists and exclusions 2026-10-19 13:43:56 +00:00
a7ca2c59a2 Settle import defaults, discovery boundaries, and inspection decisions 2026-10-19 01:54:01 +00:00
10c14aa794 Add architecture principles for simplicity and permissive defaults 2026-10-18 21:13:28 +00:00
e9774b252b Adopt shared dependency-ready ordering for imports and inheritance 2026-10-18 21:09:05 +00:00
19fe621df1 Apply permissive defaults and remove import transition support 2026-10-18 16:37:07 +00:00
82b289f4fe Clarify import roadmap decisions using Ansible conventions 2026-10-18 16:28:38 +00:00
137769f3f1 Document the ConfigKit v0.8.0 release 2026-10-17 04:58:01 +00:00
ef28eabaf8 Retire completed sequence composition plans 2026-10-17 04:56:51 +00:00
008d2ba9c8 Clarify when sequence identities are validated 2026-10-17 04:55:32 +00:00
8e3a0892d4 Project item conflict diagnostics through enclosing scopes 2026-10-17 04:54:01 +00:00
023e428b9c Index sequence assembly and history lookups 2026-10-17 04:52:20 +00:00
527a38daf1 Preserve defaults-only input absence 2026-10-17 04:49:33 +00:00
30bcd8eeb6 Protect the main version inside item scopes 2026-10-17 04:48:25 +00:00
884215c403 Honor parsed sequence indexes in version protections 2026-10-17 04:46:53 +00:00
8a89806e44 Explain descendants removed by sequence replacement 2026-10-17 04:45:49 +00:00
26720b98f0 Preserve item helper history in source order 2026-10-17 04:44:29 +00:00
4633a1b8a2 Project consumed version evidence through sequence appends 2026-10-17 04:42:23 +00:00
87986a12d2 Record sequence composition review findings 2026-10-17 01:50:02 +00:00
0858af1029 Report malformed sequence items at assigned paths 2026-10-16 19:41:48 +00:00
acddce8e2f Document sequence composition for consumers 2026-10-16 19:37:59 +00:00
77c5d9482a Close cross-cutting sequence regression gaps 2026-10-16 19:32:31 +00:00
adef16ccdd Expose sequence placement controls in the public API 2026-10-16 19:23:43 +00:00
c19825620c Project version protections through item placement 2026-10-16 19:11:08 +00:00
190431740a Apply sequence policy across loading tiers 2026-10-16 18:59:52 +00:00
25cf6d32b6 Assemble imported sequence-item scopes 2026-10-16 16:20:14 +00:00
1a04bb3835 Add private sequence-item placement 2026-10-16 15:55:29 +00:00
1cf3b0d78f Retain ordered acquisition scopes 2026-10-16 15:48:36 +00:00
66dced0823 Project history and sensitivity paths 2026-10-16 15:44:44 +00:00
b1b5163cc3 Preserve append history across tiers 2026-10-16 15:36:46 +00:00
bb9bde799a Project sequence origins onto appended indexes 2026-10-16 15:29:27 +00:00
dc7a70811a Compose registered sequences by identity 2026-10-16 15:25:06 +00:00
ff212885c4 Prepare sequence registration preflight 2026-10-16 15:19:32 +00:00
90c2d7e409 Clarify unresolved source destination evidence in implementation plan 2026-10-16 14:49:23 +00:00
60e6e2697f Plan sequence placement and composition 2026-10-16 14:36:46 +00:00
20511773fc Settle sequence placement and composition roadmap decisions 2026-10-16 14:22:59 +00:00
31fb6a9bd1 Extend sequence roadmap with item placement and open decisions 2026-10-16 14:18:36 +00:00
103e10639a Plan identity-based sequence composition 2026-10-16 14:05:43 +00:00
97c5a0390a Retire deferred scope and preserve future performance experiments 2026-10-16 13:53:34 +00:00
8b547765f0 Record selective source version requirements as future work 2026-10-16 13:42:37 +00:00
5215cf5c4f Catalog identified record sequences as future work 2026-10-16 12:07:49 +00:00
e66c37161c Retire completed roadmaps before the next release 2026-10-16 11:36:21 +00:00
e4270c9b14 Allow absent version headers below structural controls 2026-10-15 22:22:56 +00:00
e69ad0f32d Keep complete paths in missing version evidence 2026-10-15 22:20:20 +00:00
0a2246bdbe Check import opt-in before processing source headers 2026-10-15 22:18:57 +00:00
e5a6df7af7 Preserve header sensitivity across colliding path shapes 2026-10-15 22:17:49 +00:00
25cb3c47e7 Record source version review findings 2026-10-15 22:11:44 +00:00
020d72084d Document shared source version checks 2026-10-15 16:23:39 +00:00
358b28c421 Add source version adoption example 2026-10-15 16:19:24 +00:00
b0550af6a3 Audit source version lifecycle agreement 2026-10-15 16:17:21 +00:00
43c994a32a Publish detached sanitized source evidence 2026-10-15 16:12:21 +00:00
1e47ee21cd Propagate source evidence sensitivity through history 2026-10-15 16:00:01 +00:00
fed591183b Classify source version evidence at original paths 2026-10-15 15:55:16 +00:00
1f95cf905a Expose source version modes in load options 2026-10-15 15:48:59 +00:00
15f5b591b9 Check source versions in selected overlays 2026-10-15 15:44:04 +00:00
184f29c7af Check source versions in direct underlays 2026-10-15 15:40:11 +00:00
813d6a38c9 Validate source versions in recursive imports 2026-10-15 15:33:40 +00:00
23ae700194 Integrate source version checks for main inputs 2026-10-15 15:24:53 +00:00
49218a836b Add source-local version extraction 2026-10-15 15:15:05 +00:00
2fcf892324 Separate version interpretation from reporting 2026-10-15 15:04:57 +00:00
8645cab79a Record shared source version policy 2026-10-15 15:02:50 +00:00
70c95bf660 Plan shared source version checks 2026-10-15 14:24:51 +00:00
d9f08ff719 Settle source version edge-case decisions 2026-10-15 14:05:25 +00:00
2c91e41d10 Record source version decisions and remaining edge cases 2026-10-14 20:30:58 +00:00
e3860036f8 Plan shared source version checks 2026-10-14 19:03:25 +00:00
b3fc6a5950 Restore the original input destination decision 2026-10-14 18:05:48 +00:00
a858a066e4 Record relative import destination review findings 2026-10-14 17:52:14 +00:00
10edd95d4d Complete relative import destination documentation audit 2026-10-14 17:45:31 +00:00
08e03f6a38 Demonstrate entry-declared import destinations 2026-10-14 17:41:35 +00:00
a20ba0af27 Verify relative imports through the application lifecycle 2026-10-14 17:39:28 +00:00
6458dbd3aa Preserve import provenance and resource contexts 2026-10-14 17:34:52 +00:00
43e55dfa85 Verify accumulated import resource accounting 2026-10-14 17:29:54 +00:00
430985c629 Verify relative import composition and version ownership 2026-10-14 17:27:49 +00:00
4635ef08d5 Add relative destinations to import declarations 2026-10-14 17:24:57 +00:00
49c0c6d908 Pass effective destinations through import traversal 2026-10-14 17:21:07 +00:00
a8beb3e620 Record relative import destination decision and baseline 2026-10-14 17:17:50 +00:00
934c1022e0 Record PromptKit feature request decisions 2026-10-14 17:09:23 +00:00
7248a8bd95 Plan relative import destination implementation 2026-10-14 16:53:50 +00:00
b2db3233b2 Settle relative import destination syntax 2026-10-14 16:44:11 +00:00
edb6d05ec1 Plan relative import destinations 2026-10-14 16:39:10 +00:00
199 changed files with 29499 additions and 2454 deletions

View File

@@ -9,7 +9,7 @@ ConfigKit's simple `Load` accepts one strict YAML source (or explicit
defaults-only input). `LoadLayered` additionally combines explicit lower-priority
source groups with an independently selected main input. Sources can be host
files, native `fs.FS` files, labeled bytes or readers, or snapshotted mappings.
Enabled path and glob imports compose strictly within their group; precedence
Enabled explicit imports compose strictly within their group; precedence
between groups combines mappings recursively. Both entry points return a complete,
validated configuration with detached metadata and safe diagnostics.
Applications may perform audited defaulting and normalization through a resolver,
@@ -17,7 +17,8 @@ then report domain errors and warnings through read-only semantic validation. Se
tags and a path predicate drive deterministic redacted effective YAML. Typed secret
references resolve environment names before validation, and explicit
secrets-directory bootstrap is available as a separate startup operation. Explicit
CLI override records apply above overlays. Value explanation is available through
CLI override records apply after inheritance and typed decoding, before application
resolution. Value explanation is available through
detached structured records and deterministic redacted output. Built-in
`extends` relationships let a mapping inherit from a named sibling during the
same load, retaining explicit presence and source/derivation history. The root
@@ -26,6 +27,24 @@ the [configuration contract](docs/config.md#effective-configuration-diffs) and
[consumer guide](docs/consumers/README.md#effective-configuration-diffs) describe
its safe changed-region records and maintained workflows.
Sources can also be explicitly placed as sequence items. Configuration
declarations and application registrations can give selected sequences scalar
identities and choose how they combine across precedence and inheritance.
Strict peers combine distinct records, while higher-priority collections can
replace, append, or upsert whole records. See the
[sequence contract](docs/config.md#strict-document-composition),
[maintained catalog examples](docs/consumers/README.md#identified-prompt-sequences),
and [ADR 0017](docs/adr/0017-collection-sequence-policy.md).
Imports are also explicit: a source may name files, search declared directories,
or select files with path globs. Applications can set load-wide import defaults
while keeping declaration-specific exceptions. Files are acquired in authored
declaration order; dependency-ready composition uses a shared stable scheduler.
ConfigKit does not search conventional application paths implicitly. See the
[import contract](docs/config.md#explicit-imports), [consumer examples](docs/consumers/README.md),
and [ADR 0015](docs/adr/0015-shared-dependency-ready-ordering.md) and
[ADR 0016](docs/adr/0016-independent-import-controls.md).
```go
type Config struct {
Enabled bool `yaml:"enabled"`
@@ -60,19 +79,26 @@ mappings combine, while overlapping non-mapping definitions are errors. Between
precedence tiers, mappings combine recursively, retaining omitted lower-priority
children; other values replace lower-priority values. The main document and its
imports form one strictly composed tier. Explicit underlay groups sit below it
and above typed defaults; a selected overlay and explicit CLI overrides sit
above it. The [configuration contract](docs/config.md#strict-document-composition)
owns the detailed combination rules and input-specific constraints.
and above typed defaults; a selected overlay applies before inheritance, while
explicit CLI overrides apply after decoding and before application resolution.
The [configuration contract](docs/config.md#strict-document-composition) owns
the detailed combination rules and input-specific constraints. Declared or
registered collections combine distinct identified records within strict tiers
and use their selected operation at precedence boundaries; other sequences keep
their strict-conflict and whole-value-replacement behavior.
The [architecture goals](docs/policy/architecture.md#success-criteria) explain
these priorities and how genuine new needs can justify extending the shared
model. The [deferred scope](docs/roadmap/deferred.md) records deliberate exclusions.
model. The [future feature list](docs/roadmap/future.md) preserves candidates for
consideration in future releases.
The [configuration contract](docs/config.md) describes implemented behavior,
including [input destinations](docs/config.md#input-destinations). The
[consumer adoption guide](docs/consumers/README.md) provides maintained simple,
layered, and mounted-collection examples alongside the migration shapes. The
accepted placement decision is recorded in [ADR 0011](docs/adr/0011-input-destinations.md).
layered, mounted-collection, and identified-prompt examples alongside the
migration shapes. Input placement decisions are recorded in
[ADR 0011](docs/adr/0011-input-destinations.md) and sequence placement and
composition in [ADR 0014](docs/adr/0014-sequence-placement-and-composition.md).
See the [development guide](docs/development.md) for repository orientation and
the [release procedure](docs/release.md) for maintainer-only candidate and
publication steps.

View File

@@ -43,10 +43,99 @@ func toEngineLocations(values []Location) []engine.Location {
return result
}
func fromEngineSourceInfo(value engine.SourceInfo) SourceInfo {
return SourceInfo{ID: value.ID, Label: value.Label, Path: value.Path, Destination: fromEnginePath(value.Destination), Layer: Layer(value.Layer), Kind: SourceKind(value.Kind), UnderlayIndex: value.UnderlayIndex, ImportedFrom: fromEngineLocationPointer(value.ImportedFrom)}
return SourceInfo{
ID: value.ID, Label: value.Label, Path: value.Path, Destination: fromEnginePath(value.Destination),
PlacementMode: PlacementMode(engine.SourceInfoPlacementModeForFacade(value)),
DestinationUnresolved: engine.SourceInfoDestinationUnresolvedForFacade(value),
Layer: Layer(value.Layer), Kind: SourceKind(value.Kind), UnderlayIndex: value.UnderlayIndex,
ImportedFrom: fromEngineLocationPointer(value.ImportedFrom), VersionCheck: fromEngineSourceVersionCheck(value.VersionCheck),
ImportSelections: fromEngineImportSelections(engine.SourceInfoImportSelectionsForFacade(value)),
}
}
func toEngineSourceInfo(value SourceInfo) engine.SourceInfo {
return engine.SourceInfo{ID: value.ID, Label: value.Label, Path: value.Path, Destination: toEnginePath(value.Destination), Layer: engine.Layer(value.Layer), Kind: engine.SourceKind(value.Kind), UnderlayIndex: value.UnderlayIndex, ImportedFrom: toEngineLocationPointer(value.ImportedFrom)}
result := engine.SourceInfo{
ID: value.ID, Label: value.Label, Path: value.Path, Destination: toEnginePath(value.Destination),
Layer: engine.Layer(value.Layer), Kind: engine.SourceKind(value.Kind), UnderlayIndex: value.UnderlayIndex,
ImportedFrom: toEngineLocationPointer(value.ImportedFrom), VersionCheck: toEngineSourceVersionCheck(value.VersionCheck),
}
result = engine.SourceInfoWithImportSelections(result, toEngineImportSelections(value.ImportSelections))
return engine.SourceInfoWithPlacement(result, uint8(value.PlacementMode), value.DestinationUnresolved)
}
func fromEngineImportSelections(values []engine.ImportSelectionForFacade) []ImportSelection {
if values == nil {
return nil
}
result := make([]ImportSelection, len(values))
for index, value := range values {
result[index] = ImportSelection{
Path: fromEnginePath(value.Path), Location: fromEngineLocation(value.Location),
Selector: ImportSelector(value.Selector), Outcome: ImportSelectionOutcome(value.Outcome),
}
}
return result
}
func toEngineImportSelections(values []ImportSelection) []engine.ImportSelectionForFacade {
if values == nil {
return nil
}
result := make([]engine.ImportSelectionForFacade, len(values))
for index, value := range values {
result[index] = engine.ImportSelectionForFacade{
Path: toEnginePath(value.Path), Location: toEngineLocation(value.Location),
Selector: string(value.Selector), Outcome: string(value.Outcome),
}
}
return result
}
func toEngineImportDefaults(value ImportDefaults) engine.ImportDefaults {
return engine.ImportDefaults{
Required: cloneImportDefaultBool(value.Required),
Follow: cloneImportDefaultBool(value.Follow),
Hidden: cloneImportDefaultBool(value.Hidden),
Recursive: cloneImportDefaultBool(value.Recursive),
Pattern: cloneImportDefaultStrings(value.Pattern),
}
}
func cloneImportDefaultBool(value *bool) *bool {
if value == nil {
return nil
}
cloned := *value
return &cloned
}
func cloneImportDefaultStrings(values []string) []string {
if values == nil {
return nil
}
cloned := make([]string, len(values))
copy(cloned, values)
return cloned
}
func fromEngineSourceVersionCheck(value *engine.SourceVersionCheck) *SourceVersionCheck {
if value == nil {
return nil
}
return &SourceVersionCheck{
Path: fromEnginePath(value.Path),
Version: Version{Present: value.Version.Present, Null: value.Version.Null, Text: value.Version.Text},
Location: fromEngineLocationPointer(value.Location), Redacted: value.Redacted,
}
}
func toEngineSourceVersionCheck(value *SourceVersionCheck) *engine.SourceVersionCheck {
if value == nil {
return nil
}
return &engine.SourceVersionCheck{
Path: toEnginePath(value.Path),
Version: engine.Version{Present: value.Version.Present, Null: value.Version.Null, Text: value.Version.Text},
Location: toEngineLocationPointer(value.Location), Redacted: value.Redacted,
}
}
func fromEngineOrigin(value engine.Origin) Origin {
result := Origin{Layer: Layer(value.Layer), Locations: fromEngineLocations(value.Locations), Operation: ChangeKind(value.Operation)}

View File

@@ -1,6 +1,8 @@
# ADR 0005: Record explicit CLI overrides and safe value explanation
Status: accepted
Status: Partially superseded by
[ADR 0018](0018-cli-after-structural-resolution.md) for override-before-decoding
ordering. The remaining ownership and safe explanation decisions remain accepted.
Date: 2026-09-06

View File

@@ -2,7 +2,9 @@
## Status
Proposed draft for review. Completed planning and remediation records are
Proposed draft for review; its whole-sequence precedence replacement rule is
superseded by [ADR 0017](0017-collection-sequence-policy.md). The remainder
retains its proposed status. Completed planning and remediation records are
preserved in Git history at `b604aa1` under `docs/roadmap/`; the
[configuration contract](../config.md#layered-loading) owns current behavior.

View File

@@ -2,8 +2,14 @@
## Status
Accepted and implemented. The [configuration contract](../config.md#sibling-inheritance)
owns current behavior. The completed implementation plan is preserved in Git
Partially superseded by [ADR 0017](0017-collection-sequence-policy.md) for
sequence combination and the addition of identified-sequence sibling scopes,
and [ADR 0018](0018-cli-after-structural-resolution.md) for CLI-before-inheritance
ordering. Existing mapping-sibling scopes and the remaining ownership and
inspection decisions remain accepted.
The [configuration contract](../config.md#sibling-inheritance) owns implemented
behavior. The completed implementation plan is preserved in Git
history at `83c59ea`.
## Date

View File

@@ -2,9 +2,13 @@
## Status
Accepted. The [input-destinations roadmap](../roadmap/input-destinations.md)
owns implementation status and the [implementation plan](../roadmap/implementation.md)
owns sequencing and completion evidence.
Accepted and implemented. Current placement behavior is owned by the
[configuration contract](../config.md#input-destinations). The accepted
relative-import extension is recorded in
[ADR 0012](0012-relative-import-destinations.md). The completed roadmap, consumer
request, and review records are preserved at `e4270c9` under `docs/roadmap/` in
Git history; the original input-destination implementation plan remains at
`315f464:docs/roadmap/implementation.md`.
## Date

View File

@@ -0,0 +1,78 @@
# ADR 0012: Place Imported Configuration at Relative Destinations
## Status
Accepted and implemented. The
[configuration contract](../config.md#input-destinations) owns current behavior.
The completed roadmap and review records are preserved at `e4270c9` under
`docs/roadmap/` in Git history; the relative-import implementation plan remains
at `d9f08ff:docs/roadmap/implementation.md`.
## Date
2026-10-14
## Context
ConfigKit can place an input document at a literal mapping path while retaining
source identity, composition, and inspection in its normal loading lifecycle.
An importing document can currently bring in other documents, but those
contributions inherit only the importing input's destination. Consumers that
assemble a collection therefore cannot declare the layout of imported
fragments alongside the import itself without rewriting source documents or
performing another merge outside ConfigKit.
The extension should reuse input placement and the existing import lifecycle.
Logical application placement must remain independent from physical path
resolution, source identity, precedence, and resource ownership.
## Decision
Add an optional `destination` field to each YAML import declaration. Its value
is a sequence of strings representing literal mapping-key segments. Omission
and an empty sequence add no segments. A non-empty destination appends to the
effective destination of the immediately importing document; nested imports
continue from the resulting child destination. Every match of one glob
declaration receives the same computed destination.
Use the existing input-destination validation and reserved-key rules. Do not
interpret destination segments as filesystem paths, separators, sequence
indices, or root-reset instructions. Physical import paths continue to resolve
from their declaring source under existing containment rules.
Imports remain in their existing strict-composition group. A destination does
not grant precedence, bypass cycle or repeated-source rules, or change source
identity. Existing placement, version ownership, source records, diagnostics,
resource contexts, inheritance, history, and inspection mechanisms continue to
govern the placed contributions. No public Go entry point or independent
specification-header behavior is introduced.
This is additive YAML functionality and is minor-release work. Version
selection, release notes, roadmap retirement, and publication remain separate
release-preparation work.
## Alternatives Considered
- **Require complete application-root destinations on every import.** This
avoids inherited context but repeats collection prefixes in nested source
declarations and does not express placement relative to the importing
document.
- **Encode destinations as dotted or slash-delimited strings.** This introduces
separator and escaping rules even though existing paths already represent
literal mapping keys as segments.
- **Rewrite or merge imported documents in consumers.** This duplicates source
placement, strict composition, attribution, and inspection behavior outside
ConfigKit's loading lifecycle.
- **Add independent specification headers or collection-specific validation.**
These are separate design questions and are not required to declare relative
placement.
## Consequences
Import declarations can describe the logical placement of their contributions
while preserving the physical source and existing composition lifecycle.
Placement is immediate-parent-relative, so nested imports accumulate their
declared segments and sibling declarations remain independent. The feature is
implemented behind the existing public loading surface; detailed validation,
diagnostic, accounting, and inspection requirements are tracked by the
implementation roadmap.

View File

@@ -0,0 +1,92 @@
# ADR 0013: Check Source Versions with One Shared Policy
## Status
Accepted and implemented. The
[configuration contract](../config.md#shared-source-version-checks) owns current
behavior. The completed roadmap, implementation plan, consumer request, and
resolved review findings are preserved at `e4270c9` under `docs/roadmap/` in
Git history; the [development guide](../development.md#baseline-validation)
provides retrieval examples.
## Date
2026-10-15
## Context
Applications that assemble one configuration from independently authored
documents need a way to require that each contributing document declares a
version accepted by the application's existing `Definition.Version` checker.
Checking only the eventual composed value lets another source hide a rejected
declaration, while separate consumer-side parsing duplicates ConfigKit's source
handling and diagnostics.
The extension must preserve one application-owned acceptance policy and the
existing loading lifecycle. Source declarations are compatibility evidence, not
independent fragment schemas or values to compare for equality. Existing
composition, placement, precedence, source identity, diagnostics, and
sensitivity rules remain authoritative.
## Decision
Provide a load-wide source-version mode for ordinary and layered loading. The
zero-value mode preserves current behavior. The enabled modes check declarations
when present or require them, using the existing `Definition.Version` path and
checker. Interpret the configured path relative to each participating source
before placement or composition. Different declarations may be accepted by the
same checker; ConfigKit adds no equality, SemVer, or expected-version rule.
Apply the selected policy to the actual main document, direct underlays,
imports, and selected overlays. Missing non-main declarations are skipped in
if-present mode and rejected in required mode. Existing main absence behavior
remains, with required mode additionally rejecting an absent declaration on an
actual main document. `NoSource`, unmatched optional inputs, synthetic field
operations, and empty groups do not become documents that need declarations.
Reuse the existing version vocabulary and validation boundary: absence, null,
exact strings, and strict decimal integers retain their established meanings;
unsupported present values fail version-type validation. Warnings remain
nonfatal, and source declarations do not replace final application decoding or
domain validation.
After an accepted non-main declaration is checked, consume exactly that node
before its remaining application content is composed or overlaid. Preserve the
main declaration and its value semantics. Keep the declaration, source-local
path, physical location, and checked absence as detached source evidence,
separate from effective application values and history. Apply established
sensitivity rules to that evidence, including original mounted paths and
ancestors; retain existing safe failure disclosure.
In enabled modes, the main declaration remains source-local while its protected
application path is derived from the main input's destination. This distinction
does not change default-mode path interpretation or weaken protection of
remaining payload and synthetic operations.
Public option-field additions and the enabled-mode interpretation for mounted
main inputs are compatibility considerations for separately authorized minor-
release preparation. This decision does not select a release version or
authorize release notes or publication.
## Alternatives Considered
- **Check only the final composed value.** Later sources can hide an earlier
rejected declaration, so this does not validate every contributing document.
- **Let consumers parse and check each source.** This duplicates acquisition,
source attribution, safe diagnostics, and lifecycle coordination in every
application.
- **Require declarations to be equal or impose a universal version grammar.**
Consumers already own the acceptance policy; ConfigKit need not invent an
expected value or a domain-specific compatibility rule.
- **Keep accepted non-main declarations in application payload.** A selected
source-local declaration is metadata for this policy and cannot also remain
an ordinary field at the same path without ambiguity.
## Consequences
Consumers can apply one existing version policy across contributing documents
and select gradual or required adoption per load. Accepted non-main headers no
longer participate in application composition; their inspectable evidence is
kept separate and subject to sensitivity classification. Default callers retain
current behavior. The implementation plan records the concrete API names,
integration order, and validation evidence.

View File

@@ -0,0 +1,81 @@
# ADR 0014: Place and Compose Sequence Items Explicitly
## Status
Partially superseded by [ADR 0017](0017-collection-sequence-policy.md) for
identity ownership and sequence combination. Explicit source placement remains
accepted.
The [configuration contract](../config.md#strict-document-composition)
defines implemented behavior, and the [consumer guide](../consumers/README.md#identified-prompt-sequences)
shows the maintained example. The completed roadmap, implementation plan, and
resolved remediation record are preserved in Git history at `008d2ba` under
`docs/roadmap/`; see the [development guide](../development.md) for retrieval
commands.
## Date
2026-10-16
## Context
ConfigKit strictly composes independent documents by recursively combining
mappings and rejecting other overlapping values. This makes two independently
authored sequence fragments conflict, even when their records are distinct.
Precedence assembly has a different purpose: a higher-priority present sequence
replaces the lower-priority sequence as one value. Those existing rules are
predictable, but they do not express the separate operation of collecting
independent records while rejecting duplicate identities.
Likewise, mapping destinations place a source beneath literal mapping keys, but
there is no explicit way to state that a source mapping represents one item in a
sequence. Inferring that intent from document shape or fields would make source
meaning implicit and change existing placement behavior.
## Decision
Keep mapping placement as the zero-value behavior and add an explicit item
placement choice for a source whose mapping should become one element at a
non-root sequence destination. Item placement provides structure only; it does
not infer or synthesize identity values.
Allow a definition to register literal mapping paths and one literal identity
field for sequences at those paths. Within each strict composition tier, a
registered sequence accepts mapping records with a present string identity,
appends distinct records in contribution order, and rejects repeated exact
identity strings. Identical registrations coalesce; conflicting identity fields
for the same path are invalid. Registration does not recursively select paths
inside sequence records.
Keep precedence assembly unchanged. A present higher-priority sequence replaces
the lower-priority value wholesale, including at a registered path. Registration
changes strict composition only; it does not turn precedence into append or
identity-based merging.
This decision preserves ConfigKit's distinction between independent
same-priority contributions and intentional precedence. Explicit source
placement and definition-owned composition policy make the two required choices
visible while keeping the existing zero-value load behavior.
## Alternatives Considered
- **Infer item placement from a source mapping or identity field.** Shape-based
inference would make ordinary mapping placement depend on document contents
and would leave the intended destination ambiguous.
- **Append all overlapping sequences during strict composition.** This would
change existing conflict semantics at unregistered paths and would not detect
duplicate records.
- **Merge matching records recursively by identity.** This would add a second
recursive merge rule with different conflict and precedence behavior from
ConfigKit's existing mapping composition and overlay operations.
- **Use identity to merge sequences across precedence tiers.** This would
change established whole-value replacement semantics and conflate strict
composition with precedence.
## Consequences
Consumers can explicitly place mappings as sequence items and opt selected
sequences into duplicate-rejecting strict composition. Unregistered sequences
retain their current strict-conflict behavior, and higher-priority sequences
continue to replace lower-priority ones. The implementation plan owns the exact
API, YAML syntax, diagnostics, and implementation status.

View File

@@ -0,0 +1,68 @@
# ADR 0015: Share Dependency-Ready Ordering Across Imports and Inheritance
## Status
Accepted. Implemented behavior is described in the
[configuration contract](../config.md#explicit-imports) and
[internal import overview](../internal/imports.md).
## Date
2026-10-19
## Context
Imports and sibling inheritance both resolve relationships between configuration
contributions. Their existing resolvers use different traversal rules, making
ordering depend on which mechanism expresses a dependency. Ordering affects
sequence contributions, provenance, and diagnostics, so a consistent rule is
part of ConfigKit's configuration model.
The resolvers also serve distinct purposes. Imports strictly compose sources;
inheritance overlays a child on its resolved parent after source assembly.
Item-local contributions and nested inheritance introduce scope boundaries that
resolution must preserve.
## Decision
ConfigKit owns one shared dependency-ready scheduler for imports and sibling
inheritance. Both resolvers use Kahn's algorithm with a stable ordering key,
selecting the smallest currently eligible node after its dependencies have
completed. The shared scheduler owns eligibility, deterministic tie-breaking,
and dependency-cycle identification. Each resolver owns construction of its
dependency relationships and application of its domain operations.
Apply the common scheduling rule within the scopes where dependencies are
available. Complete item-local contributions before item placement and resolve
enclosing inheritance before relationships in the resulting nested scopes.
Source discovery supplies the import graph; the scheduler determines resolution
order.
Strict composition, inheritance overlay, and precedence tiers retain their
existing ownership and meanings under [ADR 0001](0001-separate-composition-and-overlay.md).
The lifecycle and scope decisions in
[ADR 0009](0009-sibling-inheritance.md) continue to govern inheritance. Import
admission retains its cycle and repeated-source rules.
## Alternatives Considered
- **Deterministic depth-first postorder.** Keeps dependency branches together,
but gives traversal branch selection an additional role in ordering.
- **Dependency rounds.** Groups nodes by readiness rounds, but delays newly
eligible nodes until the current round finishes.
- **Descending longest-path depth.** Prioritizes the furthest dependencies,
but adds distance from the root as an ordering policy.
- **Separate resolver algorithms.** Allows local specialization, but leaves
consumers and maintainers with different rules for analogous dependencies.
## Consequences
Both resolvers follow one deterministic ordering model and share responsibility
for maintaining that model. Resolver-specific scopes, combination semantics,
and source-admission rules remain explicit at their integration boundaries.
Independent branches may interleave as nodes become eligible. Adopting this
rule changes existing traversal-dependent sequence positions and reporting
order, requiring coordinated review of source assembly, provenance, and
inheritance behavior. The configuration contract owns the implemented ordering
details.

View File

@@ -0,0 +1,83 @@
# ADR 0016: Separate Import Selection, Traversal, and Presence Requirements
## Status
Accepted. Implemented behavior is described in the
[configuration contract](../config.md#explicit-imports), the
[public API declarations](../../lifecycle.go), and the
[internal import overview](../internal/imports.md).
## Date
2026-10-19
## Context
Consumers assemble configurations from named files and collections whose layout
varies between installations. Simple imports should require little setup, while
larger collections need control over discovery, recursion, filtering, and
required contributions. Combining those choices implicitly makes declarations
harder to interpret and pushes source-selection work into applications.
Discovery can also reach a candidate through overlapping searches or encounter
different names for one canonical source. Selection and source admission need
distinct identities to support useful search unions while preserving ConfigKit's
existing source-integrity rules.
## Decision
ConfigKit owns import discovery and selection within its source-loading
lifecycle. Support explicit files, directory searches, and path globs as
distinct selection forms. Keep traversal, filename filtering, and presence
requirements independently expressible. Discovery determines the selected
contributions; the shared scheduler in
[ADR 0015](0015-shared-dependency-ready-ordering.md) determines their resolution
order.
Use optional-by-default imports with explicit requiredness controls. Selected
sources remain subject to ConfigKit's validity, containment, resource, and
composition contracts. This applies the library's
[simplicity and defaults principles](../policy/architecture.md#simplicity-defaults-and-explicit-controls)
to import absence while retaining meaningful errors for invalid contributions.
Applications own their selected import defaults. Authored declaration values
take precedence over application defaults, which take precedence over library
defaults. Each declaration resolves applicable controls independently,
including declarations in imported sources. This gives applications a shared
baseline while preserving explicit choices in individual declarations.
Keep declaration-local candidate identity separate from canonical source
identity. Search unions coalesce repeated candidate paths within a source
namespace before symlink resolution; filename filtering uses the selected or
discovered name. Source admission continues to use canonical identity and the
existing repeated-source rules. Distinct aliases retain their separate
inclusion routes.
## Alternatives Considered
- **Use path globs for all discovery.** Offers one selection form, but makes
collection traversal depend on path-pattern structure and complicates
independently controlling recursion and filename filtering.
- **Offer only explicit files and directory searches.** Reduces the selector
vocabulary, but moves wildcard directory selection into repeated declarations
or application-side discovery.
- **Require every import by default.** Detects absent contributions immediately,
but requires repeated opt-outs for installations with optional components.
- **Make application settings override authored declarations.** Provides central
enforcement, but prevents declarations from expressing local exceptions.
- **Deduplicate selections globally by canonical source identity.** Coalesces
aliases and separate inclusion routes, but changes the existing repeated-source
contract and obscures independently authored contributions.
## Consequences
Consumers can express simple imports and more selective collection searches
through the same loading lifecycle. Applications choose defaults and validate
their required effective configuration; ConfigKit owns consistent selection,
source admission, composition, and inspection.
Optional absence can conceal misspelled selectors, so requiredness and
inspection provide explicit ways to detect and explain missing contributions.
Declaration-local deduplication requires the loader to preserve candidate
identity alongside canonical source identity. The configuration and public API
contracts own the implemented behavior.

View File

@@ -0,0 +1,143 @@
# ADR 0017: Define Identity and Merge Rules for Each Collection
## Status
Accepted.
This supersedes the decisions about who declares identity and how
sequences combine in [ADR 0014](0014-sequence-placement-and-composition.md),
and the rule that inheritance always replaces sequences in
[ADR 0009](0009-sibling-inheritance.md). It also extends that ADR's sibling
scopes to identified sequences. Existing mapping-sibling scopes and source
placement continue to apply. It supersedes the whole-sequence
precedence replacement rule in the proposed
[ADR 0007](0007-source-backed-underlays.md).
## Date
2026-10-22
## Context
ConfigKit can load separate files as records in a sequence. Applications can
register an identity key so records with different identities combine and
duplicates fail. However, a higher configuration layer or an inheriting mapping
currently replaces the whole sequence. Applications that need to extend a
catalog across layers must write their own merging code and keep source and
history information consistent with its results.
Configuration authors need to choose how records are identified and whether a
layer adds records, updates records, or replaces the collection. Applications
also need a way to require unique identities in the final loaded configuration.
These rules must work consistently for imported records, inline sequences,
overlays, and inheritance.
Records in a sequence may also share settings. Authors need to reuse those
settings through inheritance while keeping each record's own identity.
## Decision
ConfigKit manages identity and merge rules for each collection during loading.
Configuration files can declare those rules for imported and inline sequences,
including sequences in selected overlays. Applications can require a particular
identity definition, and configuration declarations must agree with it. Source
placement determines where each contribution enters the configuration.
Keep the distinction between contributions at the same priority and overrides
from a higher layer, as established in
[ADR 0001](0001-separate-composition-and-overlay.md). Within one tier, records
with distinct identities combine; duplicate identities and conflicting
declarations fail. Determine the applicable rules before combining those
contributions, including any identity established in lower tiers.
Across layers, support three operations: replace the whole sequence, append
records while rejecting duplicate identities, or replace whole records by
identity (`upsert`). Source layering and sibling inheritance use the same
operations. For inheritance, the rules at the inheriting destination determine
which operation applies.
An identified sequence is also a sibling scope for inheritance. A record may
inherit from one other record in the same sequence, selected by its complete
identity. Each record supplies its own identity before inheritance. The child
keeps that identity and combines its settings with the parent's other fields,
using the existing mapping and collection rules. Parents remain ordinary records
subject to normal validation.
Resolve these relationships after source assembly, using the same dependency
ordering as mapping-sibling inheritance. Resolve nested relationships at each
inheriting destination. Preserve the assembled sequence order. Whole-record
upsert keeps its existing meaning; inheritance then uses the records that remain.
Typed defaults, CLI overrides, and application resolution follow the lifecycle
in [ADR 0018](0018-cli-after-structural-resolution.md).
An explicitly selected operation remains in effect at its destination until a
higher layer changes it. When no explicit operation applies, use upsert if an
identity definition is available; otherwise replace the whole sequence. Authors
can declare identity and an operation before supplying any records. Keep source
acquisition order separate from layer priority and the dependency ordering
established by [ADR 0015](0015-shared-dependency-ready-ordering.md).
Rules declared inside a record belong to that record. Retaining the record
retains its local rules; replacing it discards them. Replacing a whole collection
can discard its previous YAML identity definition, while application requirements
still apply. Inheritance can copy collection identity, but the inheriting
destination chooses its operation. Application registrations continue to govern
the paths where they were registered. The same ownership rules apply to
declarations made before a sequence exists.
Check YAML-declared identity when combining collections during source assembly
and inheritance. Application registrations also require the final loaded
sequences to satisfy their identity rules, including after typed defaults, CLI
overrides, and application resolution. This guarantee checks sequences that
exist; the application schema and validation decide whether a collection must
exist and which value types are allowed. The guarantee applies when loading
completes, rather than to every intermediate callback state or changes made by
the caller afterward.
Preserve explicit presence, source attribution, history, sensitivity, and
resource context through these operations, following
[ADR 0003](0003-preserve-presence-and-resolution-history.md). Typed defaults,
CLI assignments, and application resolution keep their own rules for changing
values. The public API provides registration and inspection; the implementation
chooses how to store and track collection rules internally.
## Alternatives Considered
- **Keep identity application-owned and always replace sequences across layers.**
Keeps the current design small, but reusable catalogs require application
changes or custom merging code.
- **Put merge rules on each import.** Keeps the rules beside the imported source,
but inline sequences and overlays need a separate way to declare them. It also
makes rules for a collection spread across several imports harder to reconcile.
- **Merge individual fields of records with matching identities.** Allows partial
record updates, but adds rules for field conflicts and retained values.
Replacing the whole record makes the update's scope clear.
- **Keep inheritance limited to mapping siblings.** Keeps parent lookup simpler,
but authors of sequence records must duplicate shared settings or applications
must implement inheritance themselves. Collection identity provides a way to
select a parent within the existing loading process.
- **Check every YAML identity again at the end of loading.** Gives YAML declarations
authority over values changed by defaults, CLI assignments, and application
resolution. This extends the lifetime of those declarations; application
registration provides that final guarantee when needed.
## Consequences
Consumers can build and customize catalogs in one load while retaining useful
inspection information. Configuration authors choose how collections combine
within application requirements. Duplicate identities among contributions at
the same priority remain errors.
Existing registered collections use upsert across layers by default unless an
explicit operation selects otherwise. Correct loading now requires tracking
which declarations still apply as records are replaced, copied, or moved to new
positions. Lower-tier identity must be available before combining higher-tier
contributions.
Record inheritance also requires parent lookup by identity and checking for
missing parents and cycles. Copied settings retain the same source, history,
and sensitivity information as mapping-sibling inheritance.
The [configuration contract](../config.md#strict-document-composition) defines
declaration syntax, identity comparison, omission and empty-value behavior, and
diagnostics for the implemented feature.

View File

@@ -0,0 +1,84 @@
# ADR 0018: Apply CLI Overrides After Inheritance and Decoding
## Status
Accepted.
This supersedes the rule that CLI overrides apply before decoding in
[ADR 0005](0005-explicit-overrides-and-safe-explanation.md) and the
rule that they apply before inheritance in [ADR 0009](0009-sibling-inheritance.md).
Their remaining ownership, inheritance scope, and safe inspection decisions
continue to apply.
## Date
2026-10-22
## Context
Explicit command-line values are the operator's highest-priority input. If they
apply before inheritance, a sequence supplied as a replacement could gain
inherited records afterward. Its final contents would then differ from the
operator's assignment.
The application also needs these values when it fills missing settings,
normalizes values, or computes derived settings. ConfigKit needs a clear loading
order that preserves both CLI precedence and the application's role in resolving
the final configuration.
## Decision
ConfigKit uses this loading order:
1. Combine sources within tiers and apply precedence between layers.
2. Resolve sibling inheritance, apply typed defaults, and decode the configuration
into the application's types.
3. Apply explicit CLI overrides and check them against the application schema.
4. Run application resolution using the overridden configuration.
5. Look up effective secret references, validate the final configuration, and
return it.
CLI overrides are the highest-priority input to application resolution. A CLI
sequence replaces the whole sequence; mappings combine recursively. Collection
merge rules apply during the earlier source and inheritance steps. Inheritance
and typed defaulting do not run again after CLI overrides.
Keep track of which values were explicitly supplied and which CLI input supplied
them. Applications continue to parse command-line arguments; ConfigKit applies
and validates the overrides and makes their effects inspectable. Reject
structural directives in override paths and values, so instructions such as
inheritance relationships remain part of source processing.
Application resolution keeps its existing rules for defaults and recorded
changes under [ADR 0003](0003-preserve-presence-and-resolution-history.md).
It receives CLI values together with their presence and source information.
Defaults that only fill missing settings preserve explicit CLI values.
Application normalization and derived-value calculations can still change them,
with those changes recorded. Secret lookup and final validation use the resulting
configuration.
## Alternatives Considered
- **Apply CLI overrides before inheritance.** Preserves existing ordering, but
later merging needs special handling to preserve CLI replacement intent while
still combining ordinary source contributions.
- **Apply CLI overrides after inheritance but before typed decoding.** Allows an
override to fix a source value that would otherwise fail decoding, but leaves
typed defaulting after the operator's assignment. Completing defaulting and
decoding first gives CLI overrides an already resolved configuration to modify.
- **Apply CLI overrides after application resolution.** Applies assignments after
the application's changes, but derived settings still reflect earlier values
unless resolution runs again.
## Consequences
CLI overrides change a configuration whose inheritance and typed defaults are
already resolved. The application can then derive settings from the operator's
values. The final values, source information, history, and sensitivity handling
must remain consistent throughout loading.
CLI input can no longer add or cancel inheritance relationships or bypass an
earlier error in source assembly or inheritance. It also cannot fix a value that
fails the earlier decoding step. Semantic validation still runs after overrides
and application resolution. The [configuration contract](../config.md#explicit-cli-overrides)
and [consumer guidance](../consumers/README.md) describe this behavior.

View File

@@ -52,10 +52,11 @@ preserves already validated secret state without rereading the environment.
The current lifecycle is:
```text
validate options → parse the selected source → traverse/compose enabled imports
validate options → parse the selected source → extract source controls and
traverse/strictly compose enabled imports
→ build schema → check the optional application version → apply a selected overlay
→ apply explicit CLI overrides → expand sibling inheritance
→ create and clone defaults → strictly decode
→ expand sibling inheritance
→ create and clone defaults → strictly decode → apply explicit CLI overrides
→ recorded application resolution
→ resolve typed secret references → semantic validation → classify secrets
→ snapshot configuration and metadata
@@ -67,13 +68,19 @@ ID `source-1`; enabled imports continue in depth-first order as `source-2` onwar
contributes no source, and continues through defaults, decode, and projection. A
missing file remains an error; it is never interpreted as no input.
The current `Options` boundary accepts a defaults factory, `VersionRule`, resolver,
semantic validator, explicit path and glob imports, one selected overlay, and
filesystem context. It also accepts explicit CLI override records, static secret
tags, and a dynamic path predicate. `NoSource` rejects imports, active overlays,
and filesystem context as invalid combinations but accepts overrides. Input
containing a reserved `configkit` mapping key is rejected while imports are
disabled.
`Options` accepts the application definition, ordinary-source `Destination` and
`PlacementMode`, explicit imports, one selected overlay, filesystem
context, explicit CLI overrides, and shared source-version controls. The definition
may register sequence identities through `Definition.SequenceIdentities`. Its
zero-valued placement mode places the source mapping
at the destination; `sequence-item` explicitly wraps the mapping as one item at a
non-root destination. Unknown modes, invalid destinations, and invalid or
conflicting sequence registrations fail before source acquisition. Overlay and
CLI coordinates remain rooted at the application root. Ordinary `Load` recognizes
source-root collection declarations whether or not imports are enabled; an
`imports` declaration still requires imports to be enabled. `NoSource` rejects
imports, active overlays, and filesystem context as invalid combinations but
accepts overrides and remains an absent source rather than an empty document.
Every source, options, schema, version, defaults, decode, resolution, or validation
failure returns a nil result and a `*LoadError`. Successful results contain caller-owned `Config`, detached
@@ -123,16 +130,20 @@ nothing. Underlay groups are listed from lowest to highest priority. Repeating
a file within one group remains an import/repetition error; the same reusable
source may be selected again in another tier.
ConfigKit acquires and composes the main input first, constructs the schema,
and checks the optional application version from the main tier only. Underlay
roots cannot claim that version path (`underlay.version`); imported fragments
retain `import.version` protection. It then acquires and composes underlay
groups in order, recursively combines the groups, and applies the main tier,
one selected overlay, and explicit CLI overrides. Scalar, sequence, and null
definitions replace lower values between tiers; mappings combine recursively.
Syntax and strict-composition errors inside a tier cannot be masked by a
higher-priority tier. Defaults, typed decoding, resolution, secret lookup,
validation, and publication run once on the final assembled input.
ConfigKit acquires the main input first and constructs the schema. It then
acquires and strictly composes underlay groups from lowest to highest priority,
passing each group's accumulated lower collection policy into the next group.
Each group is applied once as a precedence tier. The main tier is then composed
with the accumulated underlay policy, and the optional application version is
checked against that composed main tier only. Underlay roots cannot claim that
version path (`underlay.version`); imported fragments retain `import.version`
protection. ConfigKit then applies the selected overlay and resolves inheritance.
Scalar, sequence, and null definitions replace lower values between tiers unless
a collection policy defines the sequence operation; mappings combine recursively.
After successful defaults and typed decoding, CLI overrides are applied to that
typed configuration before application resolution. Syntax, strict-composition,
inheritance, and decoding errors cannot be masked by a CLI override. Resolution,
secret lookup, validation, and publication run once on the resulting values.
An active layered overlay requires `LayeredOptions.OverlayFilesystem` explicitly,
independent of the main source's namespace. Its name and root-relative lookup
@@ -142,13 +153,21 @@ Ordinary `Load` continues to infer its selected-overlay context from its source.
Source IDs follow acquisition order—main and its depth-first imports, then each
underlay tier's inputs and depth-first imports, then overlay and CLI—even though
history follows precedence order. Source `Layer` describes precedence while
history follows precedence order. Default main-version checking happens after
underlay composition because the main tier inherits the accumulated collection
policy. Enabled per-source version checks retain acquisition order and source
local headers. Source `Layer` describes precedence while
`Kind` describes acquisition. Underlay records use `LayerUnderlay` and a
one-based `UnderlayIndex` giving their original tier position; all other records
have index zero. Explicit empty groups and `NoSource` consume no source ID.
Byte, source, node, and glob-entry budgets are shared across the load, while
the existing per-source and import-depth bounds still apply.
When a source mapping is explicitly placed as an item, its effective destination
is the sequence container. After assembly assigns an index, nested source
destinations are projected through that item. Physical source locations and
resource contexts continue to identify the declaring source.
#### Input destinations
`Input.Destination` places the source's application mapping beneath a path
@@ -160,52 +179,98 @@ indexes. Explicit index segments and paths that introduce the reserved
`configkit` or mapping-valued `extends` structure are invalid input options and
produce a structured `LoadError` before source acquisition.
Source-root `configkit.imports` directives are processed before placement, and
each imported application contribution inherits its input's destination,
including transitive imports. A valid destination on `NoSource()` contributes
nothing; an actual empty mapping materializes its destination containers. Once
placed, contributions follow the same strict composition within a tier and
recursive precedence behavior described above. A selected overlay and CLI
overrides remain rooted at the application root and are not moved beneath the
main input's destination.
Source-root `configkit.imports` directives are processed before placement. An
import without an explicit destination inherits the effective destination of
its importing document, including through nested imports. An import may instead
declare a relative destination as a sequence of literal mapping keys; its keys
append to the importing document's effective destination. Omission and `[]`
add no keys. Nested imports continue relative to their immediate importing
document, each declaration is independent of its siblings, and all matches of
one glob receive the same resulting destination. This logical placement does
not change how the physical import path resolves from its declaring file.
`SourceInfo.Destination` reports the placement for each acquired input source,
including imports. Placement does not change source IDs, acquisition identity,
physical source locations, or passive resource contexts. Introduced ancestor
mappings use the contributing document's root location as a source fallback;
authored content retains its original source coordinates. Returned source
records are detached copies.
A valid destination on `NoSource()` contributes nothing; an actual empty
mapping materializes its destination containers. Once placed, contributions
follow the same strict composition within a tier and recursive precedence
behavior described above. A selected overlay and CLI overrides remain rooted at
the application root and are not moved beneath the main input's destination.
`SourceInfo.Destination` reports each acquired source's effective mapping or
sequence-container path, including imports. `PlacementMode` reports how that
source was placed; mapping is the zero value, and CLI/overlay sources report
mapping unless item placement was applied. `DestinationUnresolved` is true only
when an enclosing item index needed to name the source's destination has not yet
been assigned. In that case `Destination` reports the nearest resolved enclosing
collection container and omits the unresolved local suffix. A source's own item
placement still has an exact destination at its sequence container. Completed
loads project nested source destinations through their owning items. Callback and
failed-load snapshots preserve the evidence available at that point; a fallback
snapshot remains unresolved, while a later exact snapshot is false. Returned
source records and paths are detached. Placement does not change source IDs,
acquisition identity, physical source locations, or passive resource contexts.
Introduced ancestor mappings use the contributing document's root location as a
source fallback; authored content retains its original source coordinates.
The maintained [layered consumer example](consumers/README.md#native-filesystem-and-layered-input)
shows a main host file, two underlay tiers, embedded defaults, a mapping source,
and explicit resource access without a second configuration pass.
The accepted rationale for input placement and its relative-import extension
is recorded in [ADR 0011](adr/0011-input-destinations.md) and
[ADR 0012](adr/0012-relative-import-destinations.md).
### Sibling inheritance
Any input mapping may declare `extends: name` to inherit from the mapping named
`name` among its immediate siblings. Names are exact keys, including the empty
string; lookup does not search ancestor or unrelated scopes. The document root
and a sequence-element mapping have no sibling namespace for their own string
relationship, though mappings nested inside them can have one. An `extends`
string; lookup does not search ancestor or unrelated scopes. A mapping inside a
sequence can also participate in record inheritance when that sequence has an
effective identity declaration from `configkit.sequences` or an application
registration. In that case, `extends` is a mapping containing exactly the
sequence's identity fields, with scalar values; lookup is limited to that final
sequence. The document root and a sequence-element mapping without an effective
identity declaration have no sibling namespace for non-null string
relationships, though mappings nested inside them can have one. An `extends`
value of null cancels a relationship without looking up a parent. Other value
types, missing or non-mapping parents, and cycles fail the load with value-free
diagnostics.
types, incomplete or extra reference fields, missing parents, and cycles fail
the load with value-free diagnostics.
Within each mapping sibling scope or identified sequence, direct definitions
resolve by dependency readiness. A parent is resolved before a child; among
currently eligible definitions, the lexically smallest canonical semantic
pointer is selected, including newly eligible definitions as soon as their
parent completes. This ordering governs inheritance operations and their
history, controls, and transfers. It does not reorder mappings or sequence
records in the resulting configuration.
`extends` is reserved structural input across ordinary and layered loads, every
source kind, imports, selected overlays, and explicit CLI overrides. It is
consumed before typed decoding and need not appear in the application's Go
types. Applications previously using `extends` as an ordinary YAML field must
rename that key and its field. No collection registration or keyword setup is
required.
required for mapping-sibling relationships; identified-sequence relationships
require effective identity fields for that collection.
ConfigKit completes strict composition within tiers and precedence assembly
between tiers before resolving relationships. An omitted `extends` retains a
lower-priority relationship; `extends: null` cancels it while preserving the
child's own settings. Superseded references are historical evidence, not active
relationships to validate. Each child recursively overlays its own settings
over its resolved parent: explicit zero, false, empty string, sequence, and
null values replace inherited values, while mappings combine recursively.
The child retains its key. All effective relationships resolve, including
between tiers before resolving relationships. Only records that survive that
assembly participate in identified-sequence lookup: an upserted parent supplies
its final record, a replaced parent is unavailable, and a higher replacement
without `extends` supersedes a lower relationship. An omitted `extends` retains
a lower-priority mapping-sibling relationship; an identified record's effective
directive depends on the record that survives assembly. `extends: null` cancels
a relationship while preserving the child's own settings. Superseded references
are historical evidence, not active relationships to validate. Each child
recursively overlays its own settings over its resolved parent: explicit zero,
false, empty string, and
null values replace inherited values, while mappings combine recursively. For
identified records, the child's identity fields and their origins remain its
own; parent identity fields do not contribute to the payload.
Sequences at collection destinations use the shared collection operation with
the parent as lower input and the child as higher input. The destination's
explicit mode applies; otherwise a copied identity selects upsert and an
unkeyed destination replaces. A parent's explicit mode does not move to a
different destination. Sequences outside collection destinations remain atomic
replacements.
All effective relationships resolve, including
entries the application may never select for execution. Partial parent
definitions undergo normal typed decoding and application-owned validation,
not a special structural exemption.
@@ -296,6 +361,67 @@ error without reporting one, ConfigKit emits a generic `version.hook_failed`
diagnostic and suppresses the returned error text. Warnings alone are retained on a
successful result. Callback panics remain programming failures.
#### Shared source-version checks
`Options.SourceVersionMode` and `LayeredOptions.SourceVersionMode` select how
one `Definition.Version` policy applies across source documents. The zero value
`SourceVersionModeDefault` preserves the existing main-only check at its
effective path and existing protected-path behavior. `SourceVersionModeIfPresent`
checks each participating document that declares a version and permits absent
non-main declarations. `SourceVersionModeRequired` rejects a participating
document without a declaration. Enabled modes require a usable `VersionRule`
and checker; an unknown mode or unusable rule is an options error before source
access or callbacks.
In enabled modes, `Definition.Version.Path` is interpreted in each acquired
document's own coordinates, before placement and composition. The main document,
direct underlay documents, imported documents (including transitive and glob
matches), and the selected overlay participate. `NoSource`, absent optional
imports, empty underlay groups, defaults, resolution output, inheritance, and
synthetic CLI overrides are not documents to check. An absent declaration in an
actual main document still reaches the checker in if-present mode; required mode
rejects it first. With `NoSource`, the existing single absent-main checker
behavior remains in both enabled modes. If-present omissions in non-main
documents skip the checker. Explicit null is present and reaches the checker;
unsupported selected values produce `version.type`. No equality with the main
declaration or non-null rule is imposed. Acceptance establishes only that the
declaration is accepted by the consumer's checker; it does not establish that
each fragment conforms to a complete application schema. Final assembled
decoding and application validation still run once.
A header that is absent below a structural control follows the same omission
policy. Actual header/control overlap is rejected, and ordinary structural
validation and main-version ownership protection continue independently.
Accepted non-main declarations are consumed from their owned payload before
composition; their authored ancestors remain, even if empty. The main
declaration remains in the application. Ordinary release metadata should use a
different path. Enabled main protection uses the main input's effective path:
its `Destination` prefixed to the source-local `VersionRule.Path`. This protects
the remaining payload against imports, underlays, inheritance, and CLI
overrides. Thus a mounted main looks up a local header while ownership checks
protect its destination-prefixed application path. Main checker diagnostics and
declaration locations use source-local coordinates; ordinary payload
diagnostics continue to use effective paths. Default-mode diagnostics are
unchanged.
`SourceInfo.VersionCheck` is nil when enabled declaration processing did not
occur. Otherwise it records a source-local `Path`, the observed `Version` state
(`Present`, `Null`, and, when disclosed, exact `Text`), an actual or nearest
available `Location`, and whether text was redacted. A non-nil record with
`Present == false` records observed absence; it does not say the checker ran or
accepted a declaration. Absent evidence still identifies the full requested
header path, while its location identifies the nearest available source node.
During callbacks and in failed-load source records,
text is conservatively withheld because final classification may not be
available. Successful final source records reflect completed sensitivity
classification at the declaration's mounted path and ancestors, including
historical classification. Redaction empties `Text` while retaining presence
and null state. Returned copies are detached; evidence does not reopen inputs.
Consult [ADR 0013](adr/0013-shared-source-version-checks.md) for the accepted
decision and the [development guide](development.md#baseline-validation) for
the completed implementation and remediation records in Git history.
### Layered metadata
`Result.Metadata` describes every final canonical path. Queries retain explicit
@@ -326,15 +452,22 @@ the descendant can therefore retain history after `Lookup` stops reporting it as
effective. Equal-valued input is still an explicit base definition, while a derived
value for absent input remains non-explicit.
Strict composition assigns contributed records their assembled sequence positions
in history. Across tiers, history follows the selected
[collection operation](#strict-document-composition), including append and
whole-record upsert. Incoming contributions use their assigned positions, and
replaced payload remains available as historical evidence.
A mapping assembled from the selected file and imports has one composite base origin
whose locations retain source traversal order. A mapping also visited by an overlay
has an overlay-layer composite origin with the lower contributing locations followed
by the overlay location; an empty mapping is still an explicit container even though
it contributes no children. Resolution origins are synthetic: they have layer
whose locations follow [scoped assembly order](#explicit-imports), not source-record
acquisition order. A mapping also visited by an overlay has an overlay-layer
composite origin with the lower contributing locations followed by the overlay
location; an empty mapping is still an explicit container even though it contributes
no children. Resolution origins are synthetic: they have layer
`resolution`, no fabricated file location, and a `derived_default` or `normalization`
operation. Reasons and dependency paths retain first occurrence order with duplicates
removed. Source records remain ordered as selected source, depth-first imports, the
selected overlay, then synthetic CLI records in supplied order.
removed. Source records and IDs retain [acquisition order](#explicit-imports),
including the underlay ordering described in [layered loading](#layered-loading).
Inheritance adds no acquired source or precedence layer. `Origin.Inheritance`
lists concrete transfers from contributor paths through destinations, with
@@ -397,29 +530,34 @@ historical path. Its effective value and each chronological before/after value a
`ValueSnapshot` records containing deterministic YAML text rather than mutable Go or
parser values. `Present=false` with empty YAML means absence or deletion; explicit
null is present and renders as `null`. The history starts with the canonical typed
application-default or Go-zero baseline, then includes only relevant base sources in
traversal order, the selected overlay, supplied CLI records, and audited net
resolution operations. Structural inheritance events appear after source replay
and before typed reconciliation, including consumed or canceled `extends` input
and equal-valued child replacements. Overlapping parent/child resolution records
application-default or Go-zero baseline, followed by relevant underlay and main-tier
contributions in precedence order, the selected overlay, and structural inheritance
events. Typed defaulting and decoding reconcile that source history before supplied
CLI records and audited net resolution operations. Within each strict tier, replay follows
[scoped assembly order](#explicit-imports), not source-record acquisition order.
Inheritance events include consumed or canceled `extends` input and equal-valued
child replacements. Overlapping parent/child resolution records
are rendered
as one net subtree event with combined reasons and dependencies, rather than
pretending that the recorded assignments ran in lexical order. Explicit equal
writes remain visible. When input replay
differs from the final typed input, a `ChangeDecoding` event records the transition
before domain resolution. Its origin retains the decoded path's source/default
attribution; its reason identifies static-default retention and canonical decoding.
This built-in inspection operation is not accepted by `Resolution.Record`.
writes remain visible. When structural replay differs from the pre-CLI typed input,
a `ChangeDecoding` event records retained defaults and canonical decoding. CLI
contributions then retain their raw input representation while effective and
resolution values use the typed projection. This built-in inspection operation is
not accepted by `Resolution.Record`.
Base, overlay, and CLI history preserves the policy-validated input representation,
including a superseded value that could not have decoded into the final Go field.
Baseline, effective, and resolution values use canonical typed projection. A
decoding event bridges replayed input and canonical typed values, so intermediate
null/scalar replacements cannot incorrectly imply permanent default removal. Mapping
queries reconstruct each source or override contribution, while sequences remain
atomic: a descendant history identifies its presence before and after the containing
sequence replacement without implying element-wise merging. Removed paths remain
explainable; unknown and malformed paths return false.
queries reconstruct each source or override contribution. A sequence snapshot
represents the collection at that point in replay, and sequence diffs remain
atomic. Descendant queries describe their presence and values before and after
containing sequence operations. Combination follows the
[collection operation tables](#strict-document-composition); upsert replaces
matching records in full. Removed paths remain explainable; unknown and malformed
paths return false.
Every snapshot applies the same historical tag, predicate, and recorded-dependency
sensitivity closure as effective rendering before YAML is exposed. A redacted scalar
@@ -506,13 +644,15 @@ must resolve to a nonempty value. Secret references work in typed structs, maps,
pointers, slices, and arrays. A dynamic `any` value does not establish secret
semantics and cannot contain `Secret`; applications must use a typed slot.
ConfigKit resolves only the effective names after recorded application resolution
and before semantic validation. Each unique name is read with `os.LookupEnv` once
per load. Validation can inspect the credential through the deliberately named
`Value()` accessor and distinguish success with `IsResolved()`. Later loads read
the environment again, and cloned defaults are rebuilt from names so a previously
resolved result cannot retain a stale credential. `Load` never writes to the
environment.
ConfigKit resolves only the effective names after CLI assignment and recorded
application resolution, and before semantic validation. CLI overrides may supply
or replace a typed secret reference; lookup uses that effective name and retains
its effective source location for diagnostics. Each unique name is read with
`os.LookupEnv` once per load. Validation can inspect the credential through the
deliberately named `Value()` accessor and distinguish success with `IsResolved()`.
Later loads read the environment again, and cloned defaults are rebuilt from names
so a previously resolved result cannot retain a stale credential. `Load` never
writes to the environment.
Credential bytes are held only in the per-load lookup state and the trusted returned
configuration, and are returned only by `Value`. Secret formatting uses a safe
@@ -576,18 +716,19 @@ files when appropriate; ConfigKit stores no implicit global report.
### Recorded application resolution
An optional `Definition.Resolve` callback runs after successful typed decoding. It
receives the working configuration and a per-load `Resolution` context. The context's
An optional `Definition.Resolve` callback runs after successful defaults, typed
decoding, and explicit CLI assignment. It receives the working configuration and a
per-load `Resolution` context. The context's
`IsExplicit` query uses surviving input presence, so explicit false, zero, empty, and
null are never confused with absence or static defaults.
`Resolution.InputInfo(path)` returns detached effective metadata from the fixed
decoded entry state, before application resolution runs. It includes retained static
defaults, preserves explicit null, and uses the same exact semantic path matching as
`Metadata.Lookup`; missing, malformed, and key/index-shape-mismatched paths return
false without diagnostics. Its `Explicit` value agrees with `IsExplicit` for every
found entry path. Resolution changes, additions, removals, and moves do not alter
this entry view.
post-decode entry state, including explicit CLI overrides, before application
resolution runs. It includes retained static defaults, preserves explicit null, and
uses the same exact semantic path matching as `Metadata.Lookup`; missing,
malformed, and key/index-shape-mismatched paths return false without diagnostics.
Its `Explicit` value agrees with `IsExplicit` for every found entry path. Resolution
changes, additions, removals, and moves do not alter this entry view.
`Resolution.Source(id)` returns a detached record for an already acquired source in
the same load: the main source, imports, selected overlay, and supplied CLI records
@@ -662,8 +803,11 @@ live services as a substitute for configuration validation.
## Strict document composition
ConfigKit strictly composes parsed base documents when `Options.Imports` is true.
Application defaults do not participate in this operation.
Ordinary `Load` applies strict document composition to its parsed source scope;
`Options.Imports` adds imported documents as peers in that scope. Application
defaults do not participate. With imports disabled, the single source still has
its controls extracted and any declared or registered collection identity is
validated, but there are no imported peers to combine.
| Existing node | Incoming node | Result |
| --- | --- | --- |
@@ -673,20 +817,148 @@ Application defaults do not participate in this operation.
| Mapping | Mapping | Recurse by mapping key |
| Any other pair of present nodes | Any other pair of present nodes | `compose.conflict` |
Every non-mapping overlap is a conflict, even when values are equal. Nulls and
sequences are present atomic values, so they also conflict when repeated; sequences
are never joined by index. Disjoint entries under shared mappings compose, making
stable keyed mappings the natural representation for independently contributed
entries.
Every non-mapping overlap is a conflict, even when values are equal, except for
sequence/sequence contributions at a destination with effective identity from an
application registration, a current YAML `key` declaration, or retained lower
policy. Nulls remain atomic conflicts.
Sequences without effective identity conflict when repeated and are never joined
by index. Disjoint entries under shared mappings compose, making stable keyed
mappings the natural representation for independently contributed entries.
`Definition.SequenceIdentities` contains registrations created by
`SequenceIdentityAt` or `SequenceIdentityMatching`. The exact form accepts a
mapping-only `Path`; the matching form accepts literal-key and any-mapping-key
segments created by `SequenceLiteralKey` and `SequenceAnyMappingKey`. A literal
`"*"` key is distinct from the wildcard constructor. Parsed numeric path tokens
remain literal mapping keys; explicit index segments and reserved `configkit` or
mapping-valued `extends` segments are invalid. The root selector is harmless under
the mapping-root schema. Selector segments consume one mapping level and match a
complete destination; an any-mapping-key segment matches exactly one key, not an
arbitrary prefix or suffix. Each registration requires one or more literal,
direct field names; compound field sets are normalized as sets, and field names
are not otherwise normalized. The same field-set and scalar-equality rules apply
to YAML `key` declarations.
At each selected path, records must provide every effective identity field as a
scalar string, number, boolean, or explicit null. Field names form a set, so
order and repetition do not affect compound identity. The type-tagged tuple
preserves category distinctions: strings compare exactly, including empty
strings; numbers, booleans, and null remain distinct categories. Finite numbers
compare by exact mathematical value, so `1`, `1.0`, and `1e0` are equal, as are
`0` and `-0`, without floating-point rounding. Distinct tuples append in source
and list order; duplicate tuples conflict even when records are otherwise equal
or disjoint. Malformed records produce `compose.invalid`; duplicate identities
produce `compose.conflict`, with paths and source locations identifying a
duplicate without exposing identity values. Missing paths and non-sequence values
do not fail by themselves. Equivalent overlapping registrations coalesce.
Incompatible overlaps and invalid registrations produce `options.invalid` before
source acquisition. Unused and root registrations are allowed and have no effect.
Registrations provide identity for strict composition, sequence operations,
inheritance lookup, and final validation. Dynamic selectors apply at concrete
strict-composition, inheritance, and final-result destinations without requiring
the application to enumerate mapping keys. Each strict tier has independent
duplicate-identity state among its peers; layered precedence and inheritance
then apply the collection operation described below.
Final registration checks run in both ordinary and layered loads after effective
secret lookup and before application semantic validation. They examine actual
final typed sequences, including values introduced by defaults, CLI, or recorded
resolution; they do not require path existence or sequence shape. Diagnostics
use concrete collection and item paths and available source locations, without
exposing identity or credential values. The guarantee ends when loading publishes
successfully and does not cover later caller mutations.
YAML-only identity is enforced during structural composition, precedence, and
identified inheritance; it carries no final-result guarantee after typed
defaults, CLI, or application resolution. Applications that need that guarantee
register the identity constraint.
The [maintained catalog examples](consumers/README.md#identified-prompt-sequences)
show strict peers, precedence operations, inheritance, dynamic destinations, and
the distinction between YAML-only declarations and application registrations.
When an enabled source-version mode is selected, declarations are checked in each
source's own coordinates before placement and composition. Accepted non-main
headers are consumed before strict composition and cannot supply a registered
record identity. Final typed decoding and application validation still run on the
completed configuration.
Ordinary sources, layered inputs, and selected overlays may declare collection
behavior under `configkit.sequences` at the document root. Each entry has a
required literal `destination` and may specify `key` as one string or a nonempty
list of strings, plus a `mode` of `replace`, `append`, or `upsert`. These
controls are removed before application decoding. A declaration destination is
relative to that source's placement, so a mounted fragment's declaration is
mounted with its values. Declarations from strict peers must agree on identity
fields and on any explicitly supplied mode; omission expresses no mode
preference. They apply even when the declaring source has no value at that
destination: a key validates an existing retained sequence or remains pending
until records arrive, while a mode-only declaration affects later combinations
without recombining earlier tiers. A key supplies the identity used by `append`
and `upsert` and is checked against any application registration.
Strict peers at an identified destination first combine distinct records in
source and list order. Duplicate identities among peers or within one
contribution fail under every mode. After strict composition, precedence and
inheritance use one operation for the assembled incoming collection:
| Mode | Behavior at source-precedence and inheritance boundaries |
| --- | --- |
| `replace` | Replace the complete lower sequence with the assembled higher sequence. |
| `append` | Retain lower records and append higher records; duplicate identities fail. |
| `upsert` | Replace matching records in full at their lower positions, retain unmatched lower records, and append new identities. |
Upsert replaces the complete matched record; it does not recursively merge
record fields. Append and upsert require identity. With no explicit mode in the
current tier, an explicit lower mode persists; if none exists, effective identity
selects upsert and its absence selects replace. Inferred modes do not persist.
Explicit modes persist at their destination until changed by a higher explicit
mode, independently of YAML identity lifetime. A declaration alone does not
clear or recombine a collection.
The presence and value kind at a precedence or inheritance boundary determine
whether a collection changes:
| Higher contribution | `replace` | `append` / `upsert` |
| --- | --- | --- |
| Absent | Leave the lower value unchanged. | Leave the lower value unchanged. |
| Explicit `[]` | Clear the sequence. | Contribute no records. |
| Explicit null or another non-sequence value | Replace the lower value, subject to application schema. | Error; the operation requires a sequence. |
An absent lower value can be initialized by an incoming sequence under any mode.
A present lower null or other non-sequence value is not absence: append and
upsert cannot combine with it. An empty sequence still requires a valid mode and
identity where applicable. Null used as an identity component inside a record is
distinct from null used as the collection value.
Declarations govern ordinary strict source composition, including loads with
imports disabled, and each strict scope in layered loading. Before composing a
higher tier's peers, ConfigKit makes applicable lower identity and explicit mode
available; after peer composition, the tier applies its resolved operation
against the lower collection. Selected overlays use the same collection policy
after the base source graph is composed. During mapping-sibling inheritance, a
parent's YAML identity can follow its collection to the child destination, while
the parent's explicit operation stays at the parent destination. The child
destination selects its operation; absent one, effective identity implies
upsert and its absence implies replace. Whole-sequence replacement discards
lower YAML identity and uses the replacing scope's key declaration, if any;
without one, the collection is unkeyed unless an application registration still
supplies identity. Replacement discards policies owned by removed records, while
an independently declared explicit mode and application registration remain
applicable. Item-local
policies follow their owning records: retaining a record retains its rules, while
whole-record upsert replacement discards the displaced record's rules. Matching
identity or reusing an index does not transfer them. These policies do not change
CLI behavior: CLI sequence assignments replace whole sequences after decoding.
A root `configkit.imports` declaration still requires `Options.Imports`;
`NoSource` has no declaration scope.
An empty mapping contributes no child definitions. Two empty mappings compose, and
an empty mapping neither clears nor conflicts with another mapping's children.
Shared mapping containers retain all contributing value locations as their composite
base origin. A conflict reports the first claim as its primary location and every
remaining claim as related locations, in deterministic source and declaration
traversal order. Traversal order never authorizes replacement. Composition clones
the resulting tree and its ordered claim records rather than mutating or aliasing an
input document.
base origin. A conflict reports the first claim in
[scoped assembly order](#explicit-imports) as its primary location and every
remaining claim as related locations in the same order. Assembly order never
authorizes replacement. Composition clones the resulting tree and its ordered
claim records rather than mutating or aliasing an input document.
## Selected overlays
@@ -703,7 +975,9 @@ and typed decoding. Overlay bytes, nodes, and source records count toward the sa
aggregate limits as base inputs. Its canonical path must remain within the configured
root and must not duplicate a file already present in the base graph.
Overlay is intentionally distinct from strict composition:
Collection destinations follow the
[collection operation and presence rules](#strict-document-composition) above.
The following table describes ordinary overlay behavior elsewhere:
| Existing lower node | Incoming overlay node | Result |
| --- | --- | --- |
@@ -712,18 +986,24 @@ Overlay is intentionally distinct from strict composition:
| Mapping | Mapping | Recurse by mapping key |
| Any other pair of present nodes | Any other pair of present nodes | Replace the entire lower node |
Scalars, sequences, and null are atomic. Thus an overlay sequence replaces rather
than extends a base sequence, `[]` clears it, null is an explicit replacement, and
cross-kind replacement is allowed when the final application schema accepts it.
Under these ordinary rules, scalars, sequences, and null are atomic. An overlay
sequence replaces rather than extends a base sequence, `[]` clears it, null is an
explicit replacement, and cross-kind replacement is allowed when the final
application schema accepts it.
Replacing a subtree removes all displaced descendants from effective presence and
origin data; history retains the displaced definitions and identifies the parent
replacement. Surviving overlay paths have overlay origins, while recursively shared
mapping containers retain their contributing locations.
An overlay may not contain `configkit` anywhere, contribute the configured schema
version, or replace an ancestor of that version with a scalar or null. These rules
apply even if the supplied version text would be unchanged. Overlays cannot mask a
base parse, composition, or version failure because those checks run first.
An overlay may contain only root `configkit.sequences` declarations; overlay
imports and nested directives are rejected. Sequence declarations are removed
before application decoding. At declared or registered sequence destinations,
`replace`, `append`, and `upsert` use the same identity and policy rules as source
composition. Other overlay sequences remain atomic replacements. An overlay may
not contribute the configured schema version or replace an ancestor of that
version with a scalar or null. These rules apply even if the supplied version
text would be unchanged. Overlays cannot mask a base parse, composition, or
version failure because those checks run first.
## Explicit CLI overrides
@@ -735,10 +1015,16 @@ must never contain the raw argument or configured value. General environment
variable overlays are an explicit non-goal: environment access is reserved for
typed secret references.
Overrides apply after the selected overlay and before typed defaults/decoding, so
the input precedence is application defaults < composed base < selected overlay <
CLI. Recorded resolution, typed secret lookup, and semantic validation follow the
effective override tree. Overrides also work with `NoSource`.
Overrides are prepared after source assembly and inheritance, then assigned after
typed defaults and decoding and before application resolution. The order is:
defaults and decoded sources < CLI < application resolution. A CLI mapping
recursively overlays the decoded mapping; a CLI sequence replaces the complete
decoded sequence regardless of source collection operations. Inheritance and
typed defaulting do not run again after CLI assignment. Earlier parsing,
composition, inheritance, and decoding failures remain errors even if an override
would replace the failing value. Recorded resolution, typed secret lookup, and
semantic validation use the effective post-override values. Overrides also work
with `NoSource`.
Values are converted directly into ConfigKit's owned tree without YAML parsing or
string coercion. Supported values are `nil`, built-in strings and booleans, all
@@ -749,7 +1035,8 @@ false, and zero remain intentional; empty sequences replace whole lists; and map
values recursively overlay existing mappings. Map keys are sorted canonically and
sequence order is preserved.
All records are detached and validated before any is applied. Root and explicit
All records are detached and validated before any is applied. They cannot create
`configkit` or `extends` controls. Root and explicit
sequence-index paths are invalid; parsed numeric tokens remain mapping keys. A path
may create missing mapping ancestors but cannot traverse an existing scalar, null,
or sequence. Duplicate and ancestor/descendant-overlapping records are rejected.
@@ -766,8 +1053,12 @@ unsupported types, nonfinite floats, and limit excesses fail with safe `override
diagnostics. Diagnostics and provenance identify the safe `Flag` source, never raw
arguments or values.
Override origins are explicit CLI origins. History retains replaced base/overlay
definitions and records equal-value replacements as well as structural changes.
Override origins are explicit CLI origins. Resolution receives CLI values with
their explicit-presence and source information. Absence-based defaults preserve
those values, while recorded normalization and derivation may change them. History
retains replaced source definitions and records equal-value replacements as well
as structural changes. Secret lookup and validation use post-resolution values
with their effective source locations.
Caller-owned maps and slices are snapshotted during loading and must not be mutated
concurrently with the call. The executable `ExampleOverride` shows translating a
parser's explicit-set state into records while preserving an explicitly supplied
@@ -775,12 +1066,22 @@ zero.
## Explicit imports
Imports are opt-in. With `Options.Imports` enabled, a document may reserve its root
`configkit` mapping for an `imports` sequence. ConfigKit removes that mapping before
application decoding. Each sequence item is a mapping with exactly one nonempty
string `path` or `glob` plus an optional boolean `optional`; all other shapes and
fields are `import.invalid`. A `configkit` key below the root is invalid. With
imports disabled, any occurrence remains `import.disabled`.
Imports are opt-in. With `Options.Imports` enabled, a document may use its root
`configkit` mapping for `imports` and `sequences` controls. Ordinary `Load` may use
`sequences` without enabling imports, but an `imports` field still requires
`Options.Imports`. ConfigKit removes recognized root controls before application
decoding. Each imports sequence item is a mapping with exactly one `path`,
`dir`, or `glob` selector. `path` and `dir` accept a string or a list of strings;
`glob` accepts one path pattern string. The optional `required` boolean controls
whether an empty selection or a missing named path is an error. Its default is
false, so missing imports are absent unless `required: true` is specified. The
removed `optional` field is invalid. `destination` is an optional sequence of
strings. Every destination string is one literal mapping key and follows the
input-destination validation rules above; quote numeric-looking keys so YAML
reads them as strings. Null, scalar destinations, and non-string members are
`import.invalid`, as are all other unsupported shapes and fields. A `configkit`
key below the root is invalid. With imports disabled, root imports and nested
`configkit` keys remain `import.disabled`.
The directive key is `configkit`, not the `_configkit` spelling used in v0.1.0.
There is no legacy alias: `_configkit` is ordinary application data, subject to
@@ -789,25 +1090,118 @@ directive keys in root files and imported fragments, and rename any application
fields previously named `configkit` to avoid the newly reserved key.
Path declarations use slash-separated relative paths. Absolute paths and network
URLs are invalid. Each path resolves from its declaring file's canonical directory,
and files are traversed depth-first in declaration order: a file contributes its own
body before its imports. Order stabilizes source records and diagnostics but never
permits replacement. Required missing paths fail; `optional: true` suppresses only
target nonexistence, not invalid paths, containment failures, directories,
permissions, parse errors, or composition errors.
URLs are invalid. Each path resolves from its declaring file's canonical directory.
An empty `path: []` selects nothing; it succeeds even when `required: true` because
there are no named targets to be missing. A nonempty required path list verifies
every named target, including targets later excluded from selection.
Directory declarations search the listed literal directory roots. Missing roots
contribute no candidates; supplied inaccessible or invalid roots fail. `pattern`
accepts one basename pattern or a list, matching filenames only. Omission selects
all filenames; an explicit empty list selects none. `exclude` accepts one basename
pattern or a list and removes matching final candidates. Patterns use Go's
case-sensitive `path.Match` grammar. `recursive` enables descendant traversal;
`depth` is valid only when recursion is effective, with direct files at depth 1 and
depth 0 or omission meaning unlimited traversal subject to library budgets.
`follow` controls discovered symlink entries and `hidden` controls discovered
names beginning with a dot. Both default to true. Explicit roots retain their
normal access behavior.
Glob declarations use the slash-based Go `path.Match` grammar: `*`, `?`, character
classes, and backslash escapes are supported, while recursive `**` syntax is invalid.
Backslashes escape pattern characters rather than acting as directory separators.
ConfigKit validates the complete pattern before filesystem traversal, walks only
directories selected by preceding segments, and reads wildcard directories in
bounded batches. Every examined entry consumes the separate visit budget, including
nonmatches. Matches are sorted lexicographically by slash-relative spelling within
each declaration before depth-first source traversal. A required zero-match glob is
`import.missing`; `optional: true` suppresses only zero matches. Invalid patterns,
walk failures, matched directories, invalid documents, escapes, and repeated targets
remain errors. Final candidates are bounded by the remaining source limit before
their contents are accumulated.
classes, and backslash escapes are supported, while recursive `**` syntax is
invalid. Backslashes escape pattern characters rather than acting as directory
separators. ConfigKit validates the complete pattern before filesystem traversal,
walks only directories selected by preceding segments, and reads wildcard
directories in bounded batches. Every examined entry consumes the separate visit
budget, including nonmatches. Literal components are explicit path components;
`follow` and `hidden` filter only wildcard-discovered entries. `exclude` filters
final candidate basenames.
`Options.ImportDefaults` and `LayeredOptions.ImportDefaults` provide one
application-owned load-wide policy for enabled imports in the main source,
underlays, and transitive imports; they do not apply to selected overlays or
discover sources by themselves. Each applicable field resolves independently:
an explicit declaration value wins, then the application default, then the
library default (`required: false`, `follow: true`, `hidden: true`,
`recursive: false`, and unrestricted filenames). A declaration's `pattern`
replaces rather than extends the default pattern. Nil `Pattern` leaves directory
filenames unrestricted; a non-nil empty slice selects none. Defaults do not make
a field applicable to selectors that do not support it, and load calls snapshot
the supplied pointers and slice before source acquisition.
A source's `configkit.sequences` declarations apply independently of import
enablement; a `configkit.imports` declaration still requires `Options.Imports`.
Sequence identities can be supplied either by these YAML declarations or by
application registrations. The [strict composition contract](#strict-document-composition)
defines their agreement, operation, and lifetime rules.
Acquisition visits declarations in authored order and each declaration's selected
paths in namespace-path lexical order, preserving source-record and version-callback
order. Ordinary mapping contributions in a main tier are assembled dependency-first:
ConfigKit selects the lexically smallest stable source key among the contributions
whose imports are complete. Independent branches may interleave, and the main body
may be assembled after its imports. Sequence-item contributions in that tier are
nodes in the same schedule; each selected item first assembles its own strict
mapping scope, with helpers before the bodies that import them. Those local scopes
do not use application collection policies and are not flattened into the outer
schedule. Item positions and diagnostic paths follow the resulting assembly order.
Each underlay group likewise acquires its inputs before dependency-ready assembly
in one strict scope. Independent groups remain separate precedence tiers; at a
declared or registered destination, the assembled higher sequence uses the
resolved collection operation against the lower sequence. Other sequences retain
whole-value replacement between tiers. Assembly order never permits replacement.
Acquisition order and resolution order serve different purposes: acquisition
assigns source records and callback order, while the shared scheduler determines
composition order among currently dependency-ready contributions. Inheritance
uses the same eligibility rule within each destination-local sibling scope; it
does not reorder the authored output mapping. The private namespace and stable-key
construction is described in the [import implementation overview](internal/imports.md).
An empty selection is allowed by default. `required: true` makes an empty directory
or glob selection fail with `import.missing`; it also makes missing named paths
fail. Requiredness does not suppress invalid paths, containment failures,
directories selected as files, permissions, parse errors, or composition errors.
For inspection, `SourceInfo.ImportSelections` records one outcome for each
completed optional declaration whose entire selected set is empty. The record is
attached to its declaring source, keeps the declaration path local to that source,
identifies the declaration mapping (including its `SourceID`) and selector, and
uses outcome `none`. Records remain in declaration order and are available
through the existing result, load
error, and callback source snapshots. They do not enumerate candidates, explain
why a path was absent, or describe partial omissions. Empty `path: []` succeeds
regardless of requiredness: it produces a `none` record when effectively optional,
and no record when effectively required. Snapshots detach the record paths and
slices.
Each declaration may include `placement: mapping` or
`placement: sequence-item`. Omission means `mapping` for that declaration,
including every match of a glob; placement is not inherited. Sequence-item
placement requires a nonempty effective destination and wraps the imported
mapping as one element of a sequence there. It does not split source sequences
or infer identity fields. Repeated sequences combine only when the destination
has an applicable YAML identity declaration or application registration; source
placement remains independent of collection identity and operation. Sequence
records retain source locations through placement and history; indexes describe
their assembled positions while source coordinates continue to identify the
declaring files.
Header/version policy retains its existing owner and timing. Application
registrations also enforce identity on the final effective typed configuration;
YAML-only declarations are enforced at structural combination and inheritance
boundaries. The [configuration contract](#strict-document-composition) defines
these validation boundaries.
An item import first opens a local mapping scope. Its body and ordinary helper
imports compose within that record. An omitted helper destination or
`destination: []` places the helper at the record root; other destinations are
relative to the immediate importing source. A helper may supply fields such as
the record's `id`. An explicit nested `sequence-item` import creates a sequence
inside the record, and its placement is independent of the enclosing item.
At the record root, an item import must name a nonempty nested destination.
Physical paths continue to resolve from the file that declares each import.
An actual empty mapping contributes an empty item, while an unmatched declaration
with default or explicit `required: false` contributes nothing.
For host files, the configuration root defaults to the selected file's canonical
directory. A host file may supply `FilesystemContext.Root` to widen that root but
@@ -826,8 +1220,13 @@ ConfigKit canonicalizes symlinks,
checks containment with relative paths, and opens the canonical root-relative target
through a library-owned root handle. Contained relative or absolute symlink targets
are accepted; escapes are rejected. Canonical paths define identity, so hard links at
distinct paths remain distinct sources. Native filesystems use slash-path operations
and their own symlink behavior; imports stay in their selected namespace and root.
distinct paths remain distinct sources. Native filesystems use slash-path
operations. Where the supplied `fs.FS` implements `fs.ReadLinkFS`, ConfigKit uses
that capability to inspect and resolve discovered links; otherwise it follows
the filesystem's ordinary `fs.FS` behavior. ConfigKit does not require every
native filesystem to expose link inspection, and native filesystem behavior is
not a general sandbox guarantee. Imports stay in their selected namespace and
root.
An active-stack repeat is `import.cycle` and reports the complete cycle's import
sites. A previously visited canonical path is `import.repeated` and reports both

View File

@@ -17,9 +17,11 @@ sanitized shapes using only ConfigKit and the Go standard library:
| Seriatim-like | Independent strict ordered speaker and autocorrect rule files | First-match and ordered replacement algorithms; no central application configuration file |
| Bundled file | Simple native `fs.FS` source through ordinary `Load` | Selection and lifetime of the application-owned embedded filesystem |
| Layered catalog | Embedded defaults with an import, a mapping underlay, an independent host main file, explicit false/zero input, and source-relative resource access | Domain validation and opening/interpreting the template resource |
| Mounted collections | Literal input destinations, peer prompt/profile fragments, local inheritance, imported collection metadata, and a version-only higher-tier override | Collection IDs, profile meaning, and opening/interpreting prompt resources |
| Mounted collections | Entry-declared relative destinations, nested metadata/prompt/profile imports, local inheritance, and a version-only higher-tier override | Collection IDs, profile meaning, and opening/interpreting prompt resources |
| Named presets | One-load sibling inheritance, explicit false, nested destination resolution, and source/derivation inspection | Choosing and executing a preset |
| Effective configuration diff | Same-type frozen effective comparisons for two selected files or base-versus-overlay impact | Source/options selection and consumer-owned safe presentation |
| Shared source-version checks | One `Definition.Version` policy for accepted declarations across participating source documents, with optional or required declarations and sanitized evidence | Choosing which declarations the application accepts; final assembled schema and domain validation |
| Sequence catalogs | Declared collection operations, record inheritance, typed CLI and resolution, inspection, exact and wildcard application registrations | Catalog meaning and final domain validation |
The YAML under [`testdata`](../../examples/consumers/testdata) is loaded by the
executable examples and ordinary tests. It contains no private application data,
@@ -53,6 +55,36 @@ both without redefining their syntax. ConfigKit overlays are configuration overl
they do not select or replace an application's LLM, model, pipeline, report, or
execution profile concepts.
## Import defaults and selection inspection
`Options.ImportDefaults` and `LayeredOptions.ImportDefaults` apply one
load-wide policy to enabled main, underlay, and transitive imports. Each field
is resolved independently: a declaration's explicit value wins, then the
application default, then the library default. `Required`, `Follow`, `Hidden`,
and `Recursive` use nil pointers for unspecified values. `Pattern` applies to
directory searches: nil leaves filenames unrestricted, while a non-nil empty
slice selects no files. A declaration's own `pattern` replaces the application
default. The defaults do not enable imports or change selected-overlay behavior.
`Result.Sources`, `LoadError.Sources`, and `Resolution.Source` expose each
declaring source's `ImportSelections`. These records identify the source-local
declaration path, its authored location and selector, and the `none` outcome;
they do not include candidate names or a guessed reason for absence. Returned
records are detached snapshots. The [configuration contract](../config.md#explicit-imports)
owns selector applicability and exact absence semantics.
## Shared source-version checks
[`LoadVersionedService`](../../examples/consumers/source_version.go) demonstrates
if-present and required modes with one `Definition.Version` rule across a mounted
main input and an underlay. The example reads only sanitized
`SourceInfo.VersionCheck` fields; its executable test is in
[`layered_test.go`](../../examples/consumers/layered_test.go). The
[configuration contract](../config.md#shared-source-version-checks) defines
participation, source-local lookup and diagnostics, non-main header consumption,
main-path protection, default behavior, and evidence disclosure. Accepted
declarations do not replace final assembled decoding or application validation.
## Effective configuration diffs
[`CompareFiles`](../../examples/consumers/diff.go) loads two caller-selected files
@@ -109,12 +141,21 @@ and may fail independently of the completed configuration load. The
[configuration contract](../config.md#source-resource-contexts) owns exact
lifetime and precedence rules.
[`LoadPromptBundle`](../../examples/consumers/layered.go) is the ordinary-root
counterpart: its entry opts into imports through `Load`, imports metadata at the
root, and places a prompt beneath `prompts` using YAML. The executable example
and behavior test are in
[`layered_test.go`](../../examples/consumers/layered_test.go).
## Input destinations and mounted collections
Main and underlay inputs use the same destination field; imported application
contributions inherit the declaring input's destination. A destination is an
application mapping path, independent of filesystem context. The configuration
contract owns the complete behavior and validation rules.
Main and underlay inputs use the same destination field. An import without a
`destination` inherits its declaring document's effective destination; an
explicit sequence of key strings appends a relative suffix. Nested imports
append to their immediate parent's effective destination, while filesystem
paths remain relative to the declaring file. Destinations are application
mapping paths, independent of filesystem context. The configuration contract
owns the complete behavior and validation rules.
The small [`Example_inputDestination`](../../examples/consumers/destinations_test.go)
mounts one mapping source beneath literal collection/prompt keys and loads a
@@ -123,12 +164,13 @@ default. Consumers pass paths, not filenames or namespace strings for ConfigKit
to interpret.
[`LoadCollectionBundle`](../../examples/consumers/destinations.go) assembles an
embedded collection manifest with a source-root import, separate prompt and
profile peers, and a higher-priority input that changes only one prompt's
ordinary `version` field. The main document alone supplies the application
schema version. A prompt's local `extends` relationship resolves after all
tiers, so `custom` inherits the final `brief` content and fields while retaining
its own profile selection.
embedded collection manifest mounted beneath a literal collection path. The
entry's YAML places nested metadata imports at the collection root and prompt
and profile peers beneath their own keys. A higher-priority input changes only
one prompt's ordinary `version` field. The main document alone supplies the
application schema version. A prompt's local `extends` relationship resolves
after all tiers, so `custom` inherits the final `brief` content and fields while
retaining its own profile selection.
The resolver follows each effective `content_file` origin to its declaring
source context. This also works for `custom`'s inherited resource. The
@@ -140,6 +182,38 @@ relative resources, and strict peer conflicts. The
[configuration contract](../config.md#input-destinations) owns shared placement,
import, source-location, and ownership behavior.
## Identified prompt sequences
[`LoadPromptCatalog`](../../examples/consumers/prompt_catalog.go) shows the
smaller import-focused adoption path: a registered `prompts.id` identity,
directory and glob selection, a helper import that supplies an item's ID, and
resource lookup through the effective source context. Its executable examples
and tests are in
[`prompt_catalog_test.go`](../../examples/consumers/prompt_catalog_test.go), with
complete [catalog](../../examples/consumers/testdata/prompt-catalog/config.yml)
and [required-file](../../examples/consumers/testdata/prompt-catalog/simple.yml)
fixtures.
[`LoadSequenceCatalog`](../../examples/consumers/sequence_catalog.go) integrates
an underlay declaration, imported main fragments, identified-record inheritance,
selected overlay `append`, `upsert`, and `replace`, a typed CLI override, and
recorded application resolution. Its tests and runnable example demonstrate
stable output order, whole-record upsert, provenance/history inspection,
resource lookup for inherited records, and secret-safe explanation in
[`sequence_catalog_test.go`](../../examples/consumers/sequence_catalog_test.go).
[`LoadNamespacedMapCatalog`](../../examples/consumers/sequence_catalog.go) adds
an exact root registration and a wildcard namespace registration, showing that
each concrete sequence has an independent identity scope. The same tests show
that a YAML identity declaration without an application registration does not
create final-result identity enforcement.
The examples keep prompt meaning and domain checks in the consuming application.
The [configuration contract](../config.md#strict-document-composition) owns
declaration, identity, operation, ownership, and final-validation semantics;
[sibling inheritance](../config.md#sibling-inheritance) defines record
relationships, and the [CLI contract](../config.md#explicit-cli-overrides) owns
override ordering.
Known module catalogs should use canonical object entries with a module identifier
and typed options. A small union struct is sufficient when the available option
fields are known; validation selects which fields apply to each module. Runtime-

View File

@@ -40,9 +40,10 @@ public behavior.
| --- | --- |
| Repository orientation or component responsibility | [Component overview](internal/overview.md) |
| Input destinations | [Configuration contract](config.md#input-destinations), [ADR 0011](adr/0011-input-destinations.md), and the destination tests below |
| Shared source-version checks | [Configuration contract](config.md#shared-source-version-checks), [ADR 0013](adr/0013-shared-source-version-checks.md), and the version/source-version tests below |
| Documentation changes | The owning document |
| Licensing, dependencies, attribution, or release-document changes | [Project grant](../COPYRIGHT) and [attribution](oss/attribution.md); release changes also follow the release procedure |
| Architecture decisions or future work | [Deferred scope](roadmap/deferred.md) and relevant ADRs listed below |
| Architecture decisions or future work | [Future features](roadmap/future.md) and relevant ADRs listed below |
| Code and test changes | The owning contract and tests from the map below |
| Examples or copyable assets | The owning implemented contract and [consumer adoption guide](consumers/README.md) |
| Release preparation | [Release procedure](release.md) |
@@ -50,6 +51,7 @@ public behavior.
Accepted decisions:
- [Separate composition and overlay](adr/0001-separate-composition-and-overlay.md)
- [Check source versions with one shared policy](adr/0013-shared-source-version-checks.md)
- [Own YAML semantics behind a private parser boundary](adr/0002-own-yaml-semantics.md)
- [Preserve presence and record application resolution](adr/0003-preserve-presence-and-resolution-history.md)
- [Secret references and explicit bootstrap](adr/0004-secret-references-and-explicit-bootstrap.md)
@@ -57,6 +59,10 @@ Accepted decisions:
- [Keep the public facade root-owned](adr/0006-public-facade.md)
- [Compare frozen effective configuration snapshots](adr/0010-effective-configuration-diff.md)
- [Place inputs at literal application mapping paths](adr/0011-input-destinations.md)
- [Share dependency-ready ordering](adr/0015-shared-dependency-ready-ordering.md)
- [Separate import selection controls](adr/0016-independent-import-controls.md)
- [Define identity and merge rules for each collection](adr/0017-collection-sequence-policy.md)
- [Apply CLI overrides after inheritance and decoding](adr/0018-cli-after-structural-resolution.md)
For cross-cutting changes, follow every applicable row. Completed implementation
and remediation plans are preserved in Git history at `cb5b435`; use current
@@ -106,7 +112,7 @@ git show 8e91a2b:docs/roadmap/startup-benchmark.md
```
Remaining optimization candidates belong to
[deferred scope](roadmap/deferred.md#deferred-performance-experiments).
[future performance experiments](roadmap/future.md#3-performance-experiments).
The completed effective-configuration diff roadmap, implementation plan, and
resolved review findings are preserved in Git history at `1c2610c` under
@@ -115,6 +121,69 @@ resolved review findings are preserved in Git history at `1c2610c` under
comparison and disclosure behavior, and
[ADR 0010](adr/0010-effective-configuration-diff.md) records the decision.
The completed input-destination, relative-import-destination, and shared
source-version roadmaps, associated consumer request, implementation plan, and
resolved review findings are preserved in Git history at `e4270c9` under
`docs/roadmap/`. For example:
```sh
git show e4270c9:docs/roadmap/implementation.md
git show e4270c9:docs/roadmap/remediation.md
```
Current behavior belongs to the configuration contract's
[input destinations](config.md#input-destinations),
[imports](config.md#explicit-imports), and
[shared source-version checks](config.md#shared-source-version-checks) sections.
Explicit sequence-item placement, collection operations, identity registration,
and final registered-identity validation are owned by the
[strict composition](config.md#strict-document-composition) section;
[imports](config.md#explicit-imports) owns acquisition and scheduling. The
[maintained sequence catalog](consumers/README.md#identified-prompt-sequences)
shows the consumer boundary, and [ADR 0017](adr/0017-collection-sequence-policy.md)
records the collection decision.
The completed sequence-composition roadmap, implementation plan, and resolved
remediation record are preserved in Git history at `008d2ba` under
`docs/roadmap/`. For example:
```sh
git show 008d2ba:docs/roadmap/sequence-composition.md
git show 008d2ba:docs/roadmap/implementation.md
git show 008d2ba:docs/roadmap/remediation.md
```
The completed import-discovery roadmap, implementation plan, and resolved
remediation record are preserved in Git history at `5747ec4` under
`docs/roadmap/`. For example:
```sh
git show 5747ec4:docs/roadmap/imports.md
git show 5747ec4:docs/roadmap/implementation.md
git show 5747ec4:docs/roadmap/remediation.md
```
The subsequent import-integration audit and completed remediation record are
preserved at `6903c9e:docs/roadmap/remediation.md`; retrieve them with
`git show 6903c9e:docs/roadmap/remediation.md`.
The completed sequence-identity/collection-policy roadmap and implementation
plan are preserved in Git history at `d0a605a`:
```sh
git show d0a605a:docs/roadmap/sequences.md
git show d0a605a:docs/roadmap/implementation.md
```
Current behavior belongs to the configuration contract's
[strict composition](config.md#strict-document-composition),
[sibling inheritance](config.md#sibling-inheritance), and
[CLI overrides](config.md#explicit-cli-overrides) sections.
The completed remediation record, including the algorithm-audit findings, is
preserved at `ea46001:docs/roadmap/remediation.md`.
Potential enhancements are tracked in [future features](roadmap/future.md).
Install the Go version required by `go.mod` or a compatible newer toolchain.
Acquire declared dependencies explicitly before entering an offline
development or validation environment:
@@ -161,20 +230,24 @@ code changes. Use the component overview to find the corresponding implementatio
| Task | Behavioral test owners | Focused command |
| --- | --- | --- |
| YAML syntax, diagnostics, parser limits | [Adapter tests](../internal/yaml/parse_test.go), [source translation](../internal/engine/parse_test.go) | `go test ./internal/yaml` and `go test ./internal/engine -run '^TestParseSource'` |
| File/reader access, imports, globs, containment | [Sources](../internal/engine/source_test.go), [FIFO](../internal/engine/source_fifo_test.go), [imports](../internal/engine/imports_test.go), [globs](../internal/engine/glob_test.go) | `go test ./internal/engine -run 'Source\|Import\|Glob\|Filesystem\|Nonregular\|RegularFile'` |
| File/reader access, imports, globs, containment | [Sources](../internal/engine/source_test.go), [FIFO](../internal/engine/source_fifo_test.go), [imports](../internal/engine/imports_test.go), [relative destinations](../internal/engine/destination_import_test.go), [globs](../internal/engine/glob_test.go) | `go test ./internal/engine -run 'Source\|Import\|Glob\|Filesystem\|Nonregular\|RegularFile'` |
| Import defaults, empty-selection evidence, and dependency-ready ordering | [Defaults and facade evidence](../facade_import_defaults_test.go), [engine import evidence](../internal/engine/import_evidence_test.go), [scheduler](../internal/engine/dependency_order_test.go), [scheduling integrations](../internal/engine/imports_test.go) | `go test ./internal/engine -run 'Import|ScheduleDependencies|Inheritance'`, `go test . -run 'ImportDefaults|FacadeImport'`, and `go test ./examples/consumers` |
| Native filesystem and mapping sources | [Native acquisition](../internal/engine/native_filesystem_test.go), [filesystem facade](../facade_filesystem_test.go), [mapping facade](../facade_mapping_test.go) | `go test ./internal/engine -run 'NativeFilesystem'` and `go test . -run 'TestFacade'` |
| Composition, selected overlays, CLI precedence | [Composition](../internal/engine/compose_test.go), [overlay](../internal/engine/overlay_test.go), [selected overlays](../internal/engine/selected_overlay_test.go), [overrides](../internal/engine/override_test.go) | `go test ./internal/engine -run 'Compose\|Overlay\|Override'` |
| Sequence identity, declarations, and operations | [Identity](../internal/engine/sequence_identity_test.go), [registrations](../internal/engine/sequence_registration_test.go), [declarations](../internal/engine/sequence_declaration_test.go), [combination](../internal/engine/sequence_combine_test.go), [final facade validation](../facade_final_sequence_identity_test.go), and [consumer catalog](../examples/consumers/sequence_catalog_test.go) | `go test ./internal/engine -run 'Sequence\|Collection'`, `go test . -run 'SequenceIdentity\|SequenceRegistration'`, and `go test ./examples/consumers` |
| Sibling inheritance, provenance, history, sensitivity | [Expansion](../internal/engine/inheritance_test.go), [destination scopes](../internal/engine/inheritance_walk_test.go), [origins](../internal/engine/inheritance_origin_test.go), [history](../internal/engine/inheritance_history_test.go), [secrets](../internal/engine/inheritance_secret_test.go), [public loading](../facade_inheritance_test.go) | `go test ./internal/engine -run 'Inheritance\|Inherited'` and `go test . -run '^TestFacadeInheritance\|^TestFacadeInheritedSecrets'` |
| Layered loading and source equivalence | [Grouped lifecycle](../internal/engine/load_request_test.go), [layered facade](../facade_layered_test.go), [equivalence](../facade_equivalence_test.go) | `go test ./internal/engine -run '^TestGrouped'`, `go test . -run '^TestFacadeLayered'`, and `go test . -run '^TestEquivalentSourceForms'` |
| Input destinations, mounted sources, and source ownership | [Destination engine tests](../internal/engine/destination_test.go), [tier and import tests](../internal/engine/destination_tiers_test.go), [integration and provenance tests](../internal/engine/destination_integration_test.go), [public facade tests](../facade_destination_test.go), and [consumer examples](../examples/consumers/destinations_test.go) | `go test ./internal/engine -run 'Destination|Mounted'`, `go test . -run 'Destination|FacadeMounted'`, and `go test ./examples/consumers -run 'CollectionBundle|CollectionPeer'` |
| Input and relative-import destinations, mounted sources, and source ownership | [Destination engine tests](../internal/engine/destination_test.go), [tier tests](../internal/engine/destination_tiers_test.go), [import traversal and version tests](../internal/engine/destination_import_test.go), [accounting tests](../internal/engine/destination_accounting_test.go), [lifecycle inspection tests](../internal/engine/destination_import_lifecycle_test.go), [public source/error tests](../facade_destination_test.go), [resource contexts](../facade_resource_context_test.go), and [consumer examples](../examples/consumers/destinations_test.go) | `go test ./internal/engine -run 'Destination|Import|Glob|Mounted'`, `go test . -run 'Destination|Import|SourceContext|FacadeMounted'`, and `go test ./examples/consumers` |
| Shared source-version modes and evidence | [Engine source-version tests](../internal/engine/source_version_test.go), [public facade tests](../facade_source_version_mode_test.go), and [consumer example tests](../examples/consumers/layered_test.go) | `go test ./internal/engine -run 'SourceVersion'`, `go test . -run 'SourceVersion'`, and `go test ./examples/consumers` |
| Schema, defaults, projection, cloning | [Schema](../internal/engine/schema_test.go), [decoding](../internal/engine/decode_test.go), [projection](../internal/engine/projection_test.go) | `go test ./internal/engine -run 'Schema\|Decode\|Projection\|Clone\|Inline\|CompareDocument'` |
| Lifecycle, resolution, validation, callback ownership | [Loading](../internal/engine/load_test.go), [resolution](../internal/engine/resolution_test.go), [validation](../internal/engine/validation_test.go), [ownership](../internal/engine/callback_ownership_test.go), [independence](../internal/engine/independence_test.go) | `go test ./internal/engine -run 'Load\|Resolution\|Validation\|Validator\|Hook\|Callback\|Parallel'` |
| Paths, metadata, provenance | [Paths](../internal/engine/path_test.go), [metadata](../internal/engine/metadata_test.go), [provenance](../internal/engine/provenance_test.go) | `go test ./internal/engine -run 'Path\|Metadata\|Provenance\|Queries'` |
| Passive resource contexts | [Engine contexts](../internal/engine/resource_context_test.go), [public contexts](../facade_resource_context_test.go) | `go test ./internal/engine -run 'Resource'` and `go test . -run 'SourceContext'` |
| Secrets, bootstrap, redaction, explanation | [References](../internal/engine/secret_reference_test.go), [bootstrap](../internal/engine/secrets_test.go), [rendering](../internal/engine/render_test.go), [explanation](../internal/engine/explain_test.go) | `go test ./internal/engine -run 'Secret\|Bootstrap\|Effective\|Explain\|Explanation\|History\|Sensitivity'` |
| Effective configuration diff | [Engine comparison and masking tests](../internal/engine/diff_test.go), [engine operation tests](../internal/engine/diff_operation_test.go), [root facade tests](../facade_diff_test.go), and [consumer examples](../examples/consumers/diff_test.go) | `go test ./internal/engine -run 'Diff|Explain|History|Secret|Independent'`, `go test . -run 'Diff|FacadeInspection|PublicFacadeBoundary|DependencyImportBoundary'`, `go test ./examples/consumers`, and `go test . -run '^ExampleDiff$'` |
| Consumer examples and migration fixtures | [Consumer tests](../examples/consumers/consumers_test.go), [native and layered examples](../examples/consumers/layered_test.go), [API examples](../example_test.go) | `go test ./examples/consumers` and `go test . -run '^Example'` |
| Consumer examples and migration fixtures | [Consumer tests](../examples/consumers/consumers_test.go), [native, layered, and ordinary relative-import examples](../examples/consumers/layered_test.go), [mounted collection examples](../examples/consumers/destinations_test.go), [API examples](../example_test.go) | `go test ./examples/consumers` and `go test . -run '^Example'` |
| Assembly and layered scaling evidence | [Assembly benchmarks](../internal/engine/assembly_bench_test.go), [layered benchmarks](../internal/engine/underlay_bench_test.go) | `go test ./internal/engine -run '^$' -bench '^BenchmarkUnderlay' -benchmem`; repeat with `^BenchmarkCompose` and `^BenchmarkOverlay` |
| Identified-sequence scaling evidence | [Mixed-upsert benchmark](../internal/engine/sequence_combine_bench_test.go) | `go test ./internal/engine -run '^$' -bench '^BenchmarkSequenceMixedUpsert$' -benchmem` |
| Inheritance scaling evidence | [Expansion benchmarks](../internal/engine/inheritance_bench_test.go) | `go test ./internal/engine -run '^$' -bench '^BenchmarkInheritance' -benchmem` |
| Documentation links and dependency isolation | [Link checks](../documentation_test.go), [import boundary](../import_boundary_test.go), [public boundary](../public_boundary_test.go) | `go test . -run 'TestLocalDocumentationLinks\|TestDependencyImportBoundary\|TestPublicFacadeBoundary'` |
| Development check behavior | [Development checker test](../development_check_test.go) | `go test . -run '^TestDevelopmentCheckHandlesFilenamesAndStopsOnFailure$'` |

87
docs/internal/imports.md Normal file
View File

@@ -0,0 +1,87 @@
# Import Discovery and Scheduling Internals
The [configuration contract](../config.md#explicit-imports) owns selector syntax,
defaults, requiredness, placement, inspection evidence, and observable ordering.
This note records implementation flow and private identities for maintainers.
## Discovery and acquisition
Each source's root directive is parsed into presence-aware declarations and
resolved against load-wide defaults. Candidate selection preserves a normalized
namespace path separately from canonical access identity: overlapping roots
coalesce the same candidate spelling in that namespace, while aliases reached
through distinct spellings retain separate inclusion routes for admission.
Directory searches walk each distinct normalized root once, apply all filename
patterns to discovered names, and form a set union of matching candidates across
overlapping roots. Exclusions are applied as set difference after discovery and
candidate normalization. They do not suppress discovery or resource errors.
Directory traversal tracks canonical directories on the active traversal path.
It adds an identity when descending and removes it when the frame is popped, so
only a back-edge to an active directory is a traversal cycle; a later alias is
not mistaken for one. This is separate from import dependency-cycle detection.
For host sources, discovery uses rooted `Lstat` and canonical containment. Native
sources use `fs.ReadLinkFS` inspection when supplied; otherwise traversal follows
the capabilities and behavior of the provided `fs.FS`, without claiming a
general sandbox guarantee.
Acquisition remains authored: declarations are visited in source order and each
selected candidate set in namespace-path lexical order. This preserves source
records, IDs, source-local version checks, and callback ordering. The acquired
inclusion graph is retained separately from composition scopes so cycles that
cross item boundaries remain detectable. Source discovery does not itself choose
sequence assembly order.
## Stable keys and scheduling
The shared scheduler compares immutable tuples component by component using Go's
bytewise string order; if one tuple is a prefix of another, the shorter tuple
sorts first. The import key is
`(namespace-kind, namespace-anchor, resource-kind, resource-path)`:
- Namespace kind is `host` or `native`. Host resource paths are canonical
absolute paths rendered with slash separators; native paths retain their
namespace-relative identity.
- Anchors come from explicit input positions, not discovery order: main is
`(0,0)` and underlay/input positions are `(group+1,input+1)`, each encoded as
fixed-width decimal. Host accesses in one scheduled tier share its host anchor.
A native filesystem namespace uses its earliest explicit selecting position
in that tier. Filesystem tokens distinguish namespace equality, not sort order,
so separately constructed filesystems with the same label remain distinct.
- Resource kind is `file` or `synthetic`. A synthetic root uses its explicit
input anchor and an empty resource path rather than a display label or token
address.
Inheritance keys are
`("definition", scope-pointer, definition-pointer)`, where both pointers use
canonical escaped semantic path spelling. Source IDs are not part of the key.
Both integrations use the same Kahn scheduler: it deduplicates dependency edges,
keeps currently ready nodes in a min-heap, and selects the smallest ready key
after every completion. Its scheduling cost is `O(E + V log V)` time and
`O(V + E)` additional memory, excluding key construction, tuple copying, and
tuple comparisons. On a stalled graph, deterministic DFS over the residual graph
returns a closed cycle rotated to its smallest key; blocked dependents are not
reported as cycle members.
Import composition schedules a main tier or one underlay group as a single
strict-scope graph. Applicable collection declarations are gathered for the
scope before peer composition, including identity inherited from lower tiers.
Identified peer sequences then combine distinct records in assembled source and
list order; after the strict scope completes, layered assembly applies the
resolved collection operation against the lower value, as defined by the
[configuration contract](../config.md#strict-document-composition). Item
contributions own nested local strict-mapping scopes; their helpers complete
before the item is placed in its outer scope. Inheritance uses the same
ready-node rule inside each sibling mapping scope, while preserving the authored
mapping order in its output.
These scopes do not flatten into one global graph, and independent precedence
tiers remain separate.
The main owners are [`import_selection.go`](../../internal/engine/import_selection.go),
[`directory_walk.go`](../../internal/engine/directory_walk.go),
[`import_graph.go`](../../internal/engine/import_graph.go),
[`dependency_order.go`](../../internal/engine/dependency_order.go), and
[`inheritance_schedule.go`](../../internal/engine/inheritance_schedule.go).
Their focused behavior is covered by import-selection, scheduler, and scheduling
integration tests under `internal/engine`.

View File

@@ -9,8 +9,18 @@ Implemented component owners:
- `internal/engine` owns host and native-filesystem source acquisition,
grouped strict composition, recursive precedence assembly, per-input mapping
placement within that assembly, and destination-local sibling inheritance
before typed decoding. It retains source placement alongside physical source
and sequence-item placement, YAML collection declarations and operations for
identified sequences, and application identity registrations for strict
composition, inheritance, and final validation. It applies the selected
collection operation at precedence boundaries and owns dependency-ready,
destination-local inheritance before typed decoding. CLI assignment follows
inheritance and decoding, before application resolution. The engine also owns
shared source-version checking with sanitized declaration evidence.
Explicit import discovery supports declared paths, directory searches, and
globs; load-wide defaults and source-local empty-selection evidence cross the
root facade without changing acquisition order. Import and inheritance
resolution share dependency-ready scheduling within their composition scopes.
It retains each source's effective placement alongside physical source
identity and owns schema
inspection, lifecycle coordination, callback auditing,
provenance/history, passive source-context retention, secret resolution and
@@ -43,8 +53,14 @@ these constraints and rejects exported aliases, fields, or signatures involving
internal types.
The [configuration contract](../config.md) owns implemented YAML and lifecycle
semantics, including [input destinations](../config.md#input-destinations) and
semantics, including [input destinations](../config.md#input-destinations),
[shared source-version checks](../config.md#shared-source-version-checks), and
[effective configuration diffs](../config.md#effective-configuration-diffs).
The [strict composition contract](../config.md#strict-document-composition)
owns sequence declarations, identity, operations, ownership, and final
validation; [CLI overrides](../config.md#explicit-cli-overrides) own override
ordering. The [consumer guide](../consumers/README.md#identified-prompt-sequences)
links maintained workflow examples.
The [consumer adoption guide](../consumers/README.md) owns application guidance.
The [architecture policy](../policy/architecture.md) owns contributor
boundaries; [ADR 0006](../adr/0006-public-facade.md) records the facade decision
@@ -53,4 +69,14 @@ decision; [ADR 0011](../adr/0011-input-destinations.md) records the placement
decision. See the [development guide](../development.md) for validation commands
and [release procedure](../release.md) for source-candidate gates. [ADR
0009](../adr/0009-sibling-inheritance.md) records why inheritance is a built-in
post-assembly structural operation.
post-assembly structural operation. [ADR 0012](../adr/0012-relative-import-destinations.md)
records the relative-import extension; [ADR 0013](../adr/0013-shared-source-version-checks.md)
records the source-version decision.
[ADR 0014](../adr/0014-sequence-placement-and-composition.md) records explicit
sequence placement and composition. [ADR 0015](../adr/0015-shared-dependency-ready-ordering.md)
records the shared dependency-ready ordering decision; [ADR
0016](../adr/0016-independent-import-controls.md) records the independent
selection controls. [ADR 0017](../adr/0017-collection-sequence-policy.md) and
[ADR 0018](../adr/0018-cli-after-structural-resolution.md) record collection
operations and CLI ordering. The [import internals](imports.md) document candidate and
namespace identities, discovery and scheduling, and the bounded algorithms.

View File

@@ -2,7 +2,7 @@
**Base Policy Version:** 1.3
**Last Updated**: 2026-09-29
**Last Updated**: 2026-10-22
**Upstream Source:** [Standard Repository Policies](https://gitea.maximumdirect.net/eric/policy/src/commit/d84a38ebab26f048cafbe59a2246700c35d29843/docs/policy/architecture.md)
@@ -19,8 +19,8 @@ to ADRs for decision rationale.
ConfigKit is an opinionated Go library for consistent YAML configuration loading
and resolution across consuming applications. The [component overview](../internal/overview.md)
owns implementation inventory, the [configuration contract](../config.md) owns
implemented behavior, and the [deferred scope](../roadmap/deferred.md) preserves
deferred scope.
implemented behavior, and the [future feature list](../roadmap/future.md) preserves
candidates for future consideration.
## Adopted Constraints And Implemented Structure
@@ -32,6 +32,12 @@ structure as implemented when its changes land.
Constraints must reflect deliberately selected requirements and decisions.
Do not promote incidental implementation choices into architectural invariants.
The implemented collection-policy and CLI-ordering constraints below reflect
accepted [ADR 0017](../adr/0017-collection-sequence-policy.md) and
[ADR 0018](../adr/0018-cli-after-structural-resolution.md). The configuration
contract owns their current behavior; these architectural constraints describe
the system boundaries and guarantees that guide changes to that behavior.
## Success Criteria
ConfigKit prioritizes a coherent configuration model: consistency and
@@ -91,6 +97,48 @@ boundaries, and keep simple consumers independent of optional composition
features. The [consumer adoption guide](../consumers/README.md) demonstrates the
implemented surface against representative simple and complex shapes.
## Simplicity, Defaults, And Explicit Controls
These principles apply throughout ConfigKit: to configuration syntax, the public
Go API, defaults, and feature design. Evaluate their effects on both configuration
authors and consuming applications.
**Keep straightforward workflows straightforward.** Common configuration
workflows should require little configuration text and minimal API setup.
Support more demanding workflows through explicit, composable options, without
requiring simple consumers to understand or configure those options.
**Prefer simple, permissive defaults with explicit controls.** Choose predictable
defaults that minimize required setup and accommodate valid configurations
without unnecessary restrictions. Provide selectable options for workflows that
need additional capabilities, narrower behavior, or stronger requirements.
Measure simplicity by what consumers must understand and maintain, including
configuration text and application-side plumbing. Concise syntax is useful, but
hidden inference and interacting meanings can make a shorter declaration harder
to understand. Prefer explicitness where it makes behavior more predictable.
A terse configuration format that requires substantial application-side
infrastructure does not satisfy the simplicity principle.
Define what permissiveness means for each behavior. Allowing an optional
contribution to be absent or accepting valid inputs without an unnecessary
filename restriction can reduce required setup. Invalid declarations, ambiguous
composition, and unreadable selected sources must still produce meaningful
errors under the applicable contracts. Permissiveness does not authorize silent
recovery from invalid supplied configuration or weaken configuration integrity.
Options should express coherent choices with understandable purposes and fit
ConfigKit's shared configuration model. Support powerful controls when they
serve concrete needs; these principles do not require a switch for every
implementation behavior or conceivable consumer preference.
Defaults require judgment when simplicity and permissiveness pull in different
directions. Broader discovery can accommodate more layouts while increasing the
implicit search scope. Evaluate such tradeoffs explicitly; these principles do
not mechanically select the broadest behavior for every option. Changes to
existing defaults remain subject to compatibility review, and proposed behavior
remains in the roadmap until implemented.
## Responsibility Boundaries
ConfigKit owns configuration input processing and the coordination of decoding,
@@ -100,15 +148,25 @@ version policy. Applications also own main-file search conventions, CLI wiring,
remote acquisition, runtime initialization, and resource checks.
The engine applies each input's mapping destination within the existing source
assembly and retains that placement with source identity and inspection records;
assembly, applies immediate-parent-relative YAML destinations to imports, and
retains each effective placement with source identity and inspection records;
the root facade owns the public fields and conversions. The
[configuration contract](../config.md#input-destinations) defines the observable
placement behavior, and [ADR 0011](../adr/0011-input-destinations.md) records the
accepted decision.
placement behavior. [ADR 0011](../adr/0011-input-destinations.md) records input
placement, and [ADR 0012](../adr/0012-relative-import-destinations.md) records
the import extension.
Library code must not depend on consuming applications or initialize their
runtime resources. It must not perform implicit network access, discover
application-specific paths, or change process-global state during ordinary `Load`.
Import discovery is available only through declarations in selected sources:
explicit `path`, `dir`, and `glob` selectors may search their declared scope, but
ConfigKit does not search conventional application paths or discover a main
configuration file implicitly. Imports and sibling inheritance share
dependency-ready scheduling within their existing scopes; acquisition order and
precedence-tier boundaries remain distinct. The [configuration contract](../config.md#explicit-imports)
owns observable behavior; [ADR 0015](../adr/0015-shared-dependency-ready-ordering.md)
and [ADR 0016](../adr/0016-independent-import-controls.md) record the decisions.
The explicit secrets-directory bootstrap is a narrow, opt-in exception: applications
invoke it during startup, and it reports writes, skips and partial failures. It
must never run implicitly as part of configuration loading.
@@ -131,6 +189,29 @@ The [configuration contract](../config.md#completion-and-resource-lifetime) owns
the precise completion and ownership behavior. The proposed decision record is
[ADR 0008](../adr/0008-complete-on-return-loading.md).
### Accepted Processing Order
Complete source composition and precedence, including selected overlays, before
sibling inheritance. Then apply typed defaults and decode the configuration.
Apply explicit CLI overrides to that configuration and check their types before
running application resolution. Effective secret lookup and final validation
follow resolution, before publication. [ADR 0018](../adr/0018-cli-after-structural-resolution.md)
records this ordering.
CLI overrides are the highest-priority input to application resolution. Supplied
sequences replace whole sequences, and mappings combine recursively. Inheritance
and typed defaulting do not run again after CLI application. CLI paths and values
must not introduce structural directives; earlier source, inheritance, and
decoding failures remain errors even if a CLI assignment would replace the value.
Semantic validation assesses the final configuration after overrides and resolution.
Applications own flag parsing and domain resolution. ConfigKit owns override
application, validation, and source attribution. Resolution receives CLI values
with their explicit-presence and source information. Absence-based defaults
preserve explicit values; recorded normalization and derivation can still change
them. Typed defaults and application resolution retain their own assignment
semantics, independently of collection operations during source assembly.
## Public API And Dependency Direction
Keep one small, coherent public surface for the supported lifecycle. Simple
@@ -159,31 +240,44 @@ framework on this library.
## Configuration Integrity
Within a configuration tier, independent contributions use strict composition:
shared mappings combine recursively, while overlapping non-mapping definitions
are conflicts, including equal values. Between precedence tiers, intentional
overlay combines mappings recursively, retains omitted lower-priority children,
and replaces other present values according to the existing overlay rules.
Tier precedence is explicit; traversal order within a tier establishes stable
reporting, not permission to override. The distinction and its rationale are
recorded in [ADR 0001](../adr/0001-separate-composition-and-overlay.md).
Within a configuration tier, independent contributions use strict composition.
Shared mappings combine recursively. Sequences with an applicable identity
combine distinct records and reject duplicate identities, including equal
records. Other overlapping non-mapping values remain conflicts, including equal
values. Conflicting identity or operation declarations among peers also fail.
Traversal order establishes stable reporting and record order; it does not grant
precedence to peers. [ADR 0001](../adr/0001-separate-composition-and-overlay.md)
records the distinction between strict composition and intentional overrides.
The main document and its imports form a strictly composed tier. Explicit
underlay groups compose strictly within each group, then combine recursively
from lowest to highest beneath the main tier. Source acquisition kind does not
determine its precedence role. Input-specific constraints, including CLI path
rules and opt-in version ownership, remain part of the configuration contract. Consistent combination
semantics do not require identical acquisition or lifetime behavior from every
source kind.
underlay groups compose strictly within each group, then combine from lowest to
highest beneath the main tier. Between tiers, mappings combine recursively and
retain omitted lower-priority children. Sequence values follow collection policy;
other present values retain the established replacement rules. Source acquisition
kind does not determine precedence. Input-specific constraints, including version
ownership and path protections, remain part of the configuration contract.
Consistent combination semantics do not require identical acquisition or lifetime
behavior from every source kind.
After source precedence is complete, built-in sibling `extends` relationships
resolve structurally in the same parser-independent representation, using the
existing recursive overlay rules. This adds neither an acquired source nor a
consumer registration mechanism. Enclosing relationships precede nested
destination-local resolution; typed defaults, application resolution, and
secret lookup retain their existing lifecycle roles. The [configuration
contract](../config.md#sibling-inheritance) owns the exact syntax and presence
rules, and [ADR 0009](../adr/0009-sibling-inheritance.md) records the rationale.
Built-in sibling `extends` relationships resolve after source precedence in the
parser-independent document representation. Preserve existing mapping-sibling
scopes and allow an identified sequence to provide a sibling scope for its
records. A record may inherit from one parent in that sequence, selected by
complete identity. The child supplies and keeps its own identity while inheriting
the parent's other settings. Parents remain ordinary records subject to normal
validation.
Use the shared dependency ordering and preserve assembled sequence order.
Resolve enclosing relationships before nested destination-local relationships.
Mappings combine recursively; sequences use the inheriting collection's policy.
Whole-record upsert replaces records during combination; explicit inheritance
uses the records that remain. Inheritance remains built-in and creates no
acquired source.
[ADR 0009](../adr/0009-sibling-inheritance.md) records the
original scope and continuing ownership decisions, with sequence combination
and identified-sequence inheritance defined by
[ADR 0017](../adr/0017-collection-sequence-policy.md) and CLI ordering by
[ADR 0018](../adr/0018-cli-after-structural-resolution.md).
ConfigKit must define supported YAML semantics explicitly rather than inherit
parser defaults. Processing order and diagnostics must be deterministic for the
@@ -192,13 +286,14 @@ configuration. Do not run application hooks on invalid typed configuration.
User-controlled precedence is application defaults, ordered underlays, composed
main input, selected overlay, then explicitly supplied CLI overrides.
Applications own flag parsing; ConfigKit owns overlay semantics and provenance.
Domain resolution follows these
inputs and must remain recorded, not become a hidden override channel.
This priority order is distinct from processing order: typed defaults are applied
at decoding, and application resolution follows CLI input under the lifecycle
rules above.
Preserve node-based composition until the effective input is ready for typed
decoding. Preserve presence and source information through processing. Ordinary Go zero
values must not be used to infer whether input was absent. Final configuration,
Preserve node-based composition through source assembly and inheritance until
typed decoding. Preserve presence and source information through later CLI and
application-resolution changes as well. Ordinary Go zero values must not be used
to infer whether input was absent. Final configuration,
metadata, and effective inspection must agree, including application resolution
changes; see [ADR 0003](../adr/0003-preserve-presence-and-resolution-history.md).
Safe historical values and an explanation renderer are part of the implemented contract,
@@ -215,6 +310,72 @@ comparison and disclosure behavior, the [component overview](../internal/overvie
owns implementation responsibility, and [ADR 0010](../adr/0010-effective-configuration-diff.md)
records the accepted decision.
## Collection Identity And Combination
ConfigKit owns a common collection policy for imported records, inline sequences,
selected overlays, and sibling inheritance. Configuration authors may declare
identity and combination rules; applications may register authoritative identity
constraints. Configuration declarations must agree with application constraints.
Keep source placement explicit and separate from policy, retaining the placement
decision in [ADR 0014](../adr/0014-sequence-placement-and-composition.md).
[ADR 0017](../adr/0017-collection-sequence-policy.md) owns the rationale for
collection policy and its relationship to application authority.
Gather declarations for the relevant destination and source or item-local scope
before strict composition. Applicable identity from accumulated lower tiers must
be available when composing higher-tier peers. Higher-tier declarations cannot
repair invalid lower-tier composition. Preserve the distinction between source
acquisition, dependency-ready scheduling within scopes, and precedence order.
Strictly compose each tier's contributions before applying one operation for the
collection against its lower value. Support whole-sequence replacement,
duplicate-rejecting append, and whole-record replacement by identity (`upsert`).
Append and upsert require identity; do not infer it from record fields or position.
Duplicate identities among peers fail under every mode. Source precedence and
inheritance use the same operations and deterministic ordering rules. Whole-record
upsert replaces the matching record's fields together; recursive record merging
and unkeyed sequence concatenation are outside this operation model.
An explicit mode persists at its applicable destination until a higher explicit
mode changes it. With no explicit mode, effective identity selects upsert and
its absence selects whole-sequence replacement. Inferred defaults do not become
persistent instructions. The inheriting destination chooses its operation; copying
a parent collection does not automatically copy its mode to that destination.
Track YAML identity and explicit modes according to their separate lifetimes.
Actual whole-value replacement discards lower YAML identity while preserving
application constraints and any new identity declaration. Item-local policies
belong to their records: retaining a record retains its rules, and discarding it
discards those rules. Policies independently applicable at a destination remain
in effect. Inheritance can copy YAML identity subject to agreement and replacement
rules; application registrations continue to constrain their registered paths.
Numeric positions alone do not establish policy ownership.
Allow declarations without accompanying records. A key declaration validates a
retained sequence immediately or remains pending in its owning scope when no
sequence exists. A mode-only declaration affects later combinations without
recombining earlier tiers. Neither declaration alone clears a collection, and
declaring replace alone does not authorize changing a retained collection's
identity. These rules do not independently impose path-existence or shape
requirements.
Enforce YAML identity during source composition, precedence, and identified
inheritance operations. Application registrations additionally constrain final
effective sequences after defaults, CLI overrides, and application resolution.
The application schema and validation own existence, nullability, and allowed
shape. The final identity guarantee covers actual sequences on successful load;
it does not cover every intermediate callback state or later caller mutations.
YAML-only declarations carry no such final guarantee through defaults, CLI
assignments, or application resolution.
Preserve source attribution, presence, history, sensitivity, and resource context
as records survive, move, or are replaced. Identity diagnostics use paths and
available origin information without exposing identity values. The guarantee
requires no new mutation-history system or exact reconstruction of causes for
records supplied by defaults or callbacks. Exact identity equality, declaration
syntax, presence cases, and operation tables belong in the
[configuration contract](../config.md#strict-document-composition).
## Ownership And Confidentiality
Returned configuration and metadata must not share mutable state across loads.
@@ -241,7 +402,7 @@ for safe messages supplied by their hooks.
Do not introduce automatic directory discovery, network providers, arbitrary
merge strategies, additional configuration languages, or application runtime
management without concrete consumer evidence and an explicit design decision.
The [deferred scope](../roadmap/deferred.md#explicit-non-goals-and-deferred-scope)
owns the deferred-feature inventory. Significant boundary
changes require an ADR and corresponding policy/contract updates; implementation
convenience alone is not a reason to broaden the public API.
Record significant decisions to exclude capabilities, and their rationale, in
ADRs. Significant boundary changes require an ADR and corresponding
policy/contract updates; implementation convenience alone is not a reason to
broaden the public API.

View File

@@ -2,7 +2,7 @@
**Base Policy Version:** 1.11
**Last Updated**: 2026-09-28
**Last Updated**: 2026-10-16
**Upstream Source:** [Standard Repository Policies](https://gitea.maximumdirect.net/eric/policy/src/commit/d84a38ebab26f048cafbe59a2246700c35d29843/docs/policy/documentation.md)
@@ -38,9 +38,10 @@ roadmap owns implementation status and sequencing until the decision is
implemented. Current architecture, user, operator, integration, and internal
documentation are updated when the behavior lands.
`docs/roadmap/deferred.md` owns deliberate exclusions; task-specific plans
own execution order and progress. Completed plans retire during release
preparation.
`docs/roadmap/future.md` owns potential enhancements and their open questions;
task-specific plans own execution order and progress. Record significant
architectural exclusions and their rationale in ADRs. Do not maintain a roadmap
inventory of rejected proposals. Completed plans retire during release preparation.
### Audience And Detail
@@ -91,7 +92,7 @@ secret values.
| Inventory of implemented internal packages | `docs/internal/overview.md` | Implemented packages and components, responsibilities, and links to focused internal docs. | Normative architecture, contributor reading policy, external contracts. |
| Behavior and architecture of internal packages | Other files under `docs/internal/` | Implementation flow, collaborators, state transitions, package-local guarantees and failures, and relevant tests. | Global architecture invariants, configuration definitions and defaults, external schemas, operator procedures. |
| Architectural decision records | `docs/adr/` | Significant decisions, context, alternatives, rationale, consequences, and supersession history. | Current behavior reference, implementation status, task sequencing. |
| Deferred scope | `docs/roadmap/deferred.md` | Deliberate exclusions and conditions for reconsideration. | Task execution and current behavior. |
| Potential future features | `docs/roadmap/future.md` | Candidate enhancements and open questions for future consideration. | Rejected proposals, architectural decisions, task execution, and current behavior. |
| Future implementation plans | Task-specific files under `docs/roadmap/` | Unfinished work, sequencing, acceptance, and progress; completed plans retire during release preparation. | Implemented behavior and ADR rationale. |
| Release-note history | `docs/releases/` | One checked-in summary per source release under the procedure; the note at its immutable tag is the release record. | Current commands, behavior, contracts, and compatibility definitions. |
| Complete examples | `examples/` and executable Go examples | Maintained copyable artifacts and Go API examples. | Configuration reference, symbol contracts, and prose explanation. |
@@ -156,8 +157,10 @@ Use sequentially numbered ADR filenames such as
Treat the decision content of an accepted ADR as immutable. When a decision
changes, create a new ADR and update the earlier ADR's status to superseded.
Rejected architectural alternatives belong in the ADR; rejected product ideas
belong in the roadmap. Routine choices need no ADR.
Rejected architectural alternatives and significant architectural exclusions
belong in ADRs. Roadmaps preserve plausible future work, not rejected product
ideas. Routine choices and rejected suggestions need no ADR unless they
represent a significant architectural decision.
## Maintenance

View File

@@ -30,7 +30,7 @@ adopts ReleaseKit for source publication, and raises the consumer Go minimum to
successful-tag-push completion point remain unchanged; CI is not a gate.
- Adopt release policy 1.6, distinguishing the consumer Go minimum from the
validation toolchain. Retire completed planning and measurement records into
Git history while preserving [deferred work](../roadmap/deferred.md).
Git history while preserving [performance candidates](../roadmap/future.md#3-performance-experiments).
## Compatibility and upgrade

70
docs/releases/v0.8.0.md Normal file
View File

@@ -0,0 +1,70 @@
# ConfigKit v0.8.0
This minor release adds explicit input placement, relative import destinations,
shared source-version checking, and opt-in composition of identified sequence
records. Applications can assemble independently authored configuration fragments
into one final configuration while retaining source locations, provenance,
history, and sensitivity information.
## Changes
- Add `Destination` to ordinary load options and layered inputs. A source mapping
can contribute beneath literal application keys without being rewritten by the
consumer. Imports inherit that destination or append a relative YAML
`destination`. Physical import paths and resource contexts remain relative to
their declaring sources. See [input destinations](../config.md#input-destinations),
[import syntax](../config.md#explicit-imports), and the
[mounted collection example](../consumers/README.md#input-destinations-and-mounted-collections).
- Add `SourceVersionModeIfPresent` and `SourceVersionModeRequired` to apply one
application-owned version checker across main, underlay, imported, and selected
overlay documents. Enabled modes check source-local declarations and consume
accepted non-main headers before composition. Detached, sensitivity-aware
evidence is available through `SourceInfo.VersionCheck`. Acceptance remains
application policy; ConfigKit does not require declarations to equal the main
version. See [shared source-version checks](../config.md#shared-source-version-checks).
- Add explicit `PlacementModeSequenceItem` placement for ordinary and layered
inputs, and `placement: sequence-item` for path and glob imports. A source
mapping becomes one item at its destination; ordinary helper imports compose
within that item and can supply its identity. See
[imports](../config.md#explicit-imports).
- Add `Definition.SequenceCompositions` registrations for strict composition at
selected literal paths using one string identity field. Distinct records append
in contribution order, while duplicate identities conflict. Higher-priority
sequences still replace lower-priority sequences wholesale. Registration does
not add identity-based overlays or final identity validation after defaults and
application resolution. See the [composition contract](../config.md#strict-document-composition)
and [maintained prompt catalog](../consumers/README.md#identified-prompt-sequences).
- Extend source inspection with destination and placement evidence, including
whether a nested destination is unresolved in an intermediate or failed-load
snapshot. Preserve source-specific history, consumed-header sensitivity, and
explanations of descendants removed by sequence replacement as records are
assembled. Source locations continue to identify authored coordinates.
## Compatibility and upgrade
The new behavior is opt-in: zero-valued destinations retain root placement,
mapping placement remains the default, unregistered sequences retain strict
conflict behavior, and the default source-version mode preserves the existing
main-only version policy. Recursive mapping precedence, whole-sequence
replacement between tiers, and application-owned final validation remain intact.
Public option, definition, input, and source-information structs gain fields.
Consumers using unkeyed literals for affected structs must switch to keyed
literals or update them. `SourceInfo` now contains a `Path` and is no longer
comparable with `==` or usable directly as a map key; compare the relevant fields
or select an application-appropriate key instead. Existing keyed literals need
no changes to retain the previous loading behavior.
Select this version and rebuild:
```sh
go get gitea.maximumdirect.net/eric/ConfigKit@v0.8.0
```
The consumer minimum remains Go 1.26.0. The YAML dependency remains
`go.yaml.in/yaml/v4 v4.0.0-rc.6`, and the maintainer tool dependency remains
ReleaseKit v0.4.1. Linux amd64 and arm64 remain release-validated targets;
macOS remains best-effort. Publication follows the existing
[release procedure](../release.md).
[COPYRIGHT](https://gitea.maximumdirect.net/eric/ConfigKit/src/tag/v0.8.0/COPYRIGHT) | [LICENSE](https://gitea.maximumdirect.net/eric/ConfigKit/src/tag/v0.8.0/LICENSE) | [ATTRIBUTION](https://gitea.maximumdirect.net/eric/ConfigKit/src/tag/v0.8.0/docs/oss/attribution.md)

111
docs/releases/v0.9.0.md Normal file
View File

@@ -0,0 +1,111 @@
# ConfigKit v0.9.0
This minor release expands import selection, adds author-declared collection
identity and operations, and supports inheritance between identified records.
It also moves CLI assignments after inheritance and typed decoding. These changes
include breaking API and configuration behavior changes from v0.8.0; review the
migration guidance below before upgrading.
## Changes
- Extend imports with named-file and directory lists, directory filename patterns,
exclusions, recursion and depth controls, and explicit hidden-file and symlink
discovery controls. Add `ImportDefaults` to ordinary and layered options, with
authored declarations taking precedence over application defaults. Imports are
optional by default. `SourceInfo.ImportSelections` exposes completed optional
declarations that selected no sources. See the
[import contract](../config.md#explicit-imports) and
[consumer guidance](../consumers/README.md#import-defaults-and-selection-inspection).
- Use shared dependency-ready ordering for import composition and sibling
inheritance. Dependencies complete before dependents, with deterministic
selection among currently eligible contributions. Source acquisition and
callback order remain separate from assembly order. See the
[ordering decision](../adr/0015-shared-dependency-ready-ordering.md).
- Add root `configkit.sequences` declarations for collection identity and
`replace`, `append`, or `upsert` operations, including in selected overlays.
Strict peers combine distinct identities and reject duplicates; precedence
and inheritance apply the destination's collection operation. Upsert replaces
a whole matching record at its retained position. Identity supports compound
field sets and scalar strings, numbers, booleans, and null. See the
[collection contract](../config.md#strict-document-composition).
- Add `Definition.SequenceIdentities`, exact `SequenceIdentityAt` registrations,
and dynamic `SequenceIdentityMatching` selectors. Application registrations
govern structural collection operations and check existing matching final
typed sequences, including values from defaults, CLI assignments, and
application resolution. YAML-only declarations govern structural operations
without adding that final-result check.
- Support record inheritance within an identified sequence using an `extends`
mapping containing the parent's complete identity. The child retains its own
identity, relationships use surviving assembled records, and output sequence
order is preserved. See [sibling inheritance](../config.md#sibling-inheritance)
and the maintained [sequence catalog](../consumers/README.md#identified-prompt-sequences).
- Apply explicit CLI overrides to the decoded configuration before application
resolution. Mappings retain omitted fields and their presence metadata;
sequences replace whole lists independently of collection operations. See the
[CLI contract](../config.md#explicit-cli-overrides).
- Correct native import alias and contained-symlink handling, source-version
path projection, and provenance/history through collection movement,
replacement, inheritance, and CLI assignment. Reduce repeated scans,
accumulated policy copying, and sparse-projection storage during construction.
## Compatibility and upgrade
This pre-v1 minor release intentionally changes the v0.8.0 contracts:
1. **Migrate import requiredness.** The YAML `optional` field is removed and is
rejected. Replace `optional: true` with `required: false`; omission is equivalent
when the application does not default imports to required. Replace
`optional: false` with `required: true`. Imports that previously relied on
implicit requiredness now need `required: true`, or an application
`ImportDefaults.Required` default set to true. Review discovery filters:
`follow` and `hidden` default to true, and directory searches select all
filenames unless a pattern is supplied.
2. **Replace sequence registrations.** `SequenceComposition` and
`Definition.SequenceCompositions` are removed without compatibility aliases.
For a previous registration at `prompts` using `id`, use:
```go
rules.SequenceIdentities = []configkit.SequenceIdentity{
configkit.SequenceIdentityAt(configkit.Keys("prompts"), "id"),
}
```
These registrations now also enforce identity in final typed sequences. Fix
missing or duplicate identities introduced by defaults, CLI assignments, or
application resolution. Registration does not require a collection to exist
or determine its allowed shape; schema and application validation retain
those responsibilities.
3. **Review collection precedence and ordering.** An identified collection now
defaults to upsert across layers and inheritance when no explicit mode
applies, rather than unconditional whole-sequence replacement. Declare
`mode: replace` at the relevant destination where replacement is intended.
With append or upsert, `[]` contributes no records and does not clear the
collection; null is invalid. Use `mode: replace` with `[]` to clear it.
An explicit mode persists at its destination until changed; a parent's mode
does not transfer to a different inheriting destination. Unidentified
sequences retain strict peer conflicts and whole-value precedence
replacement. Dependency-ready assembly can change sequence positions and
diagnostic or history order compared with the former traversal order.
4. **Review CLI recovery and inheritance assumptions.** CLI overrides can no
longer repair values that fail earlier decoding, bypass source or inheritance
errors, or add or cancel inheritance relationships. Supply structural
directives in source configuration. Application resolution still receives
explicit CLI values and may record subsequent normalization or derivation.
5. **Update affected Go literals and diagnostic handling.** Use keyed literals
for expanded option and source-information structs. Collection validation adds
`CodeSequenceInvalid` (`sequence.invalid`) and `CodeSequenceConflict`
(`sequence.conflict`); update diagnostic handling where applicable.
Select this version and rebuild:
```sh
go get gitea.maximumdirect.net/eric/ConfigKit@v0.9.0
```
The consumer minimum remains Go 1.26.0. The YAML dependency remains
`go.yaml.in/yaml/v4 v4.0.0-rc.6`, and the maintainer tool dependency remains
ReleaseKit v0.4.1. Linux amd64 and arm64 remain release-validated targets;
macOS remains best-effort. Publication follows the existing
[release procedure](../release.md).
[COPYRIGHT](https://gitea.maximumdirect.net/eric/ConfigKit/src/tag/v0.9.0/COPYRIGHT) | [LICENSE](https://gitea.maximumdirect.net/eric/ConfigKit/src/tag/v0.9.0/LICENSE) | [ATTRIBUTION](https://gitea.maximumdirect.net/eric/ConfigKit/src/tag/v0.9.0/docs/oss/attribution.md)

222
docs/roadmap/complexity.md Normal file
View File

@@ -0,0 +1,222 @@
# Internal Complexity Refactoring Roadmap
Status: proposed target state. This roadmap defines a behavior-preserving
refactor; a later implementation plan will define stages and exact private
signatures and file names.
## Purpose
Make ConfigKit's import, inheritance, and projection implementation easier to
understand, review, and change while preserving its public APIs and configuration
behavior. Concentrate on functions that coordinate several responsibilities and
carry substantial shared state.
The target is clearer responsibility and ownership. Adding a few well-named
helpers, private records, or focused files can serve that target even when total
line count increases. Complexity measurements help locate candidates; they do
not establish function-size limits, score thresholds, or release gates.
The [architecture policy](../policy/architecture.md) owns package and ownership
constraints. The [configuration contract](../config.md) and exported Go comments
remain authoritative for consumer behavior.
## Current Baseline
Reviewed baseline: `7a83704f43ef9870db33661231cdff5d6ee502f7`.
The root facade delegates to a cohesive private engine, supported by the ordered
document representation and YAML adapter. Most functions are small. The
complexity audit identified these concentrated maintenance costs:
| Area | Current implementation | Required improvement |
| --- | --- | --- |
| Imports | `imports.go` spans acquisition, item-local composition, and evidence projection. Private loading variants pass long positional argument lists. Source admission and directory selection contain substantial mixed control flow. | Give import entry points explicit, cohesive inputs and separate the responsibilities of acquisition, scope assembly, and evidence projection. |
| Inheritance | `applyInheritanceScopeTemplates` coordinates payload preparation, parent combination, policy ownership, origins, history, and accounting in one executor. | Keep one readable executor with focused operations and explicit state handoffs. |
| Projection | `valueOperation.project` combines type dispatch with struct flattening, map and sequence traversal, scalar conversion, sensitivity, and accounting. | Retain clear dispatch while moving substantial value-kind handling into focused helpers. |
The implemented inventory belongs to the
[component overview](../internal/overview.md). Existing import flow and scheduling
are described in [import internals](../internal/imports.md).
## Target Architecture
The refactor stays within `internal/engine`. The root facade, `internal/document`,
and `internal/yaml` retain their existing responsibilities and dependency
direction. Focused files and ordinary private functions express the new internal
organization. Package extraction is outside this roadmap's selected design.
`executeLoadRequest` remains the visible coordinator of the shared load lifecycle.
Its phase order should remain easy to follow. Helpers expose meaningful work and
results rather than distributing that order across a generic execution framework.
Existing shared mechanisms remain shared: recursive mapping combination,
identified-sequence operations, dependency-ready scheduling, schema descriptors,
and projection/accounting state. New helper boundaries make their ownership and
use clearer without creating parallel implementations.
### Imports: Cohesive Inputs And Scope Ownership
Import loading has a clear private entry surface using named request/context
fields for related inputs. Reuse the existing load-request, acquisition-scope,
and traversal models where they fit. Consolidate forwarding variants whose only
purpose is passing another optional positional argument through the chain.
Retain convenience helpers when they express a useful, distinct operation.
Keep these state lifetimes identifiable:
- Load-wide state: accounting, shared inclusion/repetition information,
namespaces, and source-version processing.
- Acquisition requests: source and filesystem context, placement, declarations,
applicable policy, and the relevant assembly handoff.
- Composition scopes: peer contributions, item-local helpers, record ownership,
and pending declarations.
- Evidence: physical source records, effective destinations, origins, and retained
history projections.
Group acquisition, pending-item assembly, and evidence projection in focused
files. A caller should be able to identify which operation acquires resources,
which composes already acquired content, and which projects retained evidence.
Shared mutable state has a visible owner; a request record need not duplicate
state already held by that owner.
Within dense admission, directory-selection, and declaration-parsing routines,
extract coherent operations where that reduces nested, mixed responsibilities.
Preserve the existing selection algorithms and host/native filesystem behavior.
Resource ownership and closure remain explicit across success and failure paths.
The resulting flow preserves the distinction among acquisition order, strict
scope scheduling, and precedence. Completing a helper scope before placing its
item remains part of the same import flow. Ordinary and layered loading continue
to share the applicable mechanisms.
### Inheritance: One Executor With Explicit Phases
Keep the mapping and identified-sequence adapters and their shared template
executor. The executor coordinates focused operations for:
- Preparing child payload, directives, and destination-local state.
- Preparing the resolved parent payload and applicable inherited policy.
- Combining values through the existing mapping and sequence mechanisms.
- Producing policy, origin, replacement, and replay evidence from that combination.
- Accounting for expansion and retained history under the existing budgets.
These are responsibility boundaries, not a required helper count or a new
scheduler. Small private result records are appropriate when related outputs
otherwise travel through long argument lists or implicit mutations.
Authored templates, resolved values, scoped policy, and inspection evidence remain
distinguishable. Immutable borrowed inputs and owned mutable results have clear
lifetimes. Nested instructions remain available for destination-local evaluation.
For identified-record inheritance, the child's own identity fields and origins
remain intact; the parent's identity fields are excluded from inherited payload
and its history, as the current contract requires.
One sequence-operation result continues to drive value construction, record
ownership, origins, and historical position projection. Helpers consume that
evidence directly. Scheduling remains dependency-ready, enclosing relationships
resolve before nested ones, and assembled sequence order remains unchanged.
### Projection: Explicit Value-Kind Handlers
Keep `projectConfiguration` as the schema-checked entry and `valueOperation` as
the owner of per-operation traversal and accounting state. The central dispatch
clearly selects the appropriate handling for pointers, dynamic values, structs,
maps, sequences, and scalars.
Substantial struct, map, and sequence work lives in focused handlers. Struct
projection retains declaration order, inline flattening, collision diagnostics,
and sensitivity propagation. Map projection retains deterministic key ordering.
Scalar conversion retains the existing number, duration, text-codec, and secret
reference representations.
Depth and node accounting retain their existing meaning, including flattened
containers. Cycle tracking stays active through recursive child traversal and
is balanced on error paths as well as success. Passing state through a helper
does not introduce another full-tree projection or an unnecessary ownership copy.
Cloning and source-value construction remain distinct operations with their
existing semantics. Reuse small helpers when the semantics coincide; keep the
projection refactor centered on making the existing traversal readable.
## Behavior And Scope Preservation
The implementation preserves:
- Root-owned public types, signatures, supported import paths, and facade boundaries.
- Supported source forms, opt-ins, import controls, placement, acquisition and
composition ordering, and source/version evidence.
- Strict peer composition, precedence operations, identity agreement and lifetime,
record ownership, and destination-local inheritance.
- The load lifecycle, including typed defaults, post-decode CLI assignment,
recorded application resolution, and final validation.
- Explicit presence, provenance, history, sensitivity, resource contexts, and
detached publication/query results.
- Established diagnostic codes, semantic paths, source coordinates, ordering,
resource lifetime, and existing limit behavior.
The owning contracts define the extent of these obligations. Incidental private
call sequences, exact helper names, and allocation counts do not acquire new
guarantees through this roadmap. The work adds no consumer options, configuration
syntax, dependencies, or complexity-based gates.
## Relationship To Remediation And Other Work
The completed remediation record at `ea46001:docs/roadmap/remediation.md`
documents the identified correctness and algorithmic efficiency findings.
Several overlap these files, particularly item-scope application matching and
inheritance policy localization.
Use the documented contract and completed remediation as the behavioral baseline.
Keep corrective changes reviewable under their findings, and retain their
regressions through this refactor. The later implementation plan should coordinate
overlapping work and select its starting revision rather than duplicating the
remediation plan here. These structural changes do not close a finding merely
because its function moved or became smaller.
The pending [discovery roadmap](discovery.md) remains separate feature work.
Import cleanup should leave clear private boundaries for future use without
implementing discovery behavior as part of this refactor.
## Work Needed And Validation
Implementation needs to consolidate import inputs and adapters, separate import
responsibilities, extract inheritance operations with explicit outputs, and
decompose projection handling. Remove superseded private plumbing as its callers
migrate. Review the resulting call flow for repeated traversals, policy scans,
copies, or hidden state transitions introduced by extraction.
Reuse the existing behavioral suites under the
[development guide](../development.md) and [testing policy](../policy/testing.md):
- Imports: selection, scheduling, source/version evidence, placement, helper scopes,
ordinary/layered equivalence, filesystem failures, and resource lifetime.
- Inheritance: mapping and record relationships, nested destination resolution,
cancellation and replacement, policy ownership, history, sensitivity, and
independent loads.
- Projection: schema/decoding agreement, inline fields, text codecs, nil/empty
values, cycles and budgets, secrets, and detached results.
Add focused regressions only where a consequential handoff risk lacks coverage.
Tests should continue to describe behavior as private functions and files move.
Use the existing everyday check and applicable ownership race checks during
implementation. Complexity measurements can inform review; acceptance does not
depend on numerical scores or a new benchmark campaign.
Update the component overview and import internals to describe the implemented
ownership and file responsibilities when the refactor lands. Update contributor
navigation and test-owner references where moves affect them. Public behavior
continues to be defined by its current canonical owners.
## Completion Criteria
- Import callers pass cohesive named inputs, with clearly owned load-wide and
scope-local state and fewer redundant forwarding variants.
- Import acquisition, item assembly, and evidence projection are easy to locate
and follow across focused private files.
- Inheritance orchestration exposes value, policy, evidence, and accounting work
without requiring readers to reconstruct their interaction from one large body.
- Projection dispatch and substantial value-kind handlers have clear boundaries
and share the original operation state correctly.
- Existing APIs and contracted behavior, including completed remediation, remain
covered by the relevant behavioral and ownership checks.
- Internal documentation matches the resulting implementation.

View File

@@ -1,57 +0,0 @@
# Deferred Scope
This document owns intentionally excluded features, not a committed delivery plan.
The [architecture policy](../policy/architecture.md) governs changes to these
boundaries. Implemented behavior belongs in the [configuration contract](../config.md)
and consumer adoption in the [consumer guide](../consumers/README.md).
## Explicit non-goals and deferred scope
General environment-variable configuration overlays are not supported. Typed secret
references and explicit directory bootstrap are the environment convention. Literal
credential configuration and implicit secret-directory discovery are unsupported.
The following remain deliberately excluded:
- automatic `conf.d` discovery;
- remote imports, arbitrary providers, and additional configuration formats;
- custom merge strategies, sequence merging, reset operators, multiple-parent
inheritance, and cross-scope references;
- named overlay inheritance;
- parser-specific or custom structural-decoding extension APIs;
- generic dynamic-subtree conversion and module-registry APIs;
- automatic schema migrations;
- hot reload, runtime resource replacement, and remote resource validation;
- a bundled CLI framework or application commands; and
- configuration fingerprints.
Applications may build their own validate, effective-value, source, bootstrap, and
explanation commands around the library. Broadening these boundaries requires
concrete consumer evidence, compatibility review, and an explicit design change.
Effective configuration diffs are implemented over frozen successful-load
inspections; their current comparison and disclosure contract is in the
[configuration contract](../config.md#effective-configuration-diffs), with
consumer workflows in the [adoption guide](../consumers/README.md#effective-configuration-diffs).
Fingerprints remain deferred.
Built-in sibling inheritance using `extends` is implemented as described in the
[configuration contract](../config.md#sibling-inheritance). It is distinct from
inheritance between selected overlay files, which remains excluded above.
## Deferred performance experiments
The completed performance audit left these internal optimization candidates for
separate investigation:
- branch-local explanation replay instead of the current whole-tree replay;
- redesigning the private metadata-copy handoff while preserving detached public
records;
- caching schema descriptors across loads; and
- indexing complex contributor-trace membership while preserving its equality
rules and compact linked traces.
These are not committed implementation work. Reconsider them with evidence that
the benefit justifies the ownership, retained-memory, or equivalence risks. The
completed audit and implementation evidence are preserved in Git history at
`8e91a2b` under `docs/roadmap/`.

381
docs/roadmap/discovery.md Normal file
View File

@@ -0,0 +1,381 @@
# Composable Configuration Discovery Roadmap
Status: proposal with OD-1 through OD-5 and the final review clarifications
settled and integrated below.
This document describes future work, not an implemented contract. A staged
implementation plan will follow review of the complete roadmap.
## Purpose And Ownership
Make ordinary file-based loading concise for applications that want conventional
configuration locations. ConfigKit supplies useful built-in candidate lists and
an ordered selection operation. Consumers continue to own main-file search
conventions: they choose which lists apply, their order, custom candidates, and
whether a configuration file is required.
A consumer can select one preset for a simple application or compose several
presets and custom path lists. The application supplies an explicit slug where
needed to construct conventional paths. ConfigKit does not infer application
identity from the executable name or enable discovery for existing explicit
sources.
Discovery selects one source for the existing loading lifecycle. It does not
create additional configuration tiers or merge every matching file. Existing
layered loading remains available when consumers intentionally combine sources.
## Current Baseline
The [source contract](../config.md#sources) provides explicit host files, native
filesystem files, bytes, readers, mappings, and `NoSource()`. A missing explicit
file fails. The zero source is invalid. There is no conventional main-file search.
[Ordinary loading](../config.md#single-source-loading) infers a selected overlay's
filesystem context from the main source. `NoSource()` currently rejects enabled
imports, active overlays, and filesystem context. In
[layered loading](../config.md#layered-loading), an absent main input can coexist
with underlays; a selected overlay requires an explicit `OverlayFilesystem`.
These distinctions matter when an optional search finds nothing.
The [architecture policy](../policy/architecture.md#responsibility-boundaries)
assigns search conventions to consumers and currently excludes implicit main-file
discovery. The addition should clarify that consumers may explicitly select
library-provided search conventions. Consumer ownership remains unchanged.
## Agreed Direction
### Filename Groups, Directory Searches, And Search Presets
Organize discovery around three composable descriptions. These are ordered lists:
their order determines precedence.
**Filename groups** provide reusable, ordered filename templates. The built-in
groups are:
| Group | Filenames, in order |
| --- | --- |
| Named | `<appname>.yml`, `<appname>.yaml` |
| Generic | `config.yml`, `config.yaml`, `main.yml`, `main.yaml` |
`<appname>` is the application slug supplied by the consumer.
**Directory searches** pair a directory with an ordered list of filename groups.
The default selection is `[Named, Generic]`, producing the six filenames above
in that order. A directory search may select different groups or reverse their
precedence, such as `[Generic, Named]`, while retaining each group's internal
order. Consumers can also supply custom filenames, subject to the literal
single-component rules under OD-5 below.
**Search presets** bundle ordered directory searches. Consumers can select a
complete preset for the simple case or compose presets, custom directory searches,
and explicit file candidates in their desired order. Explicit file candidates
are literal paths and receive no filename expansion.
### Ordered Expansion And Concatenation
The selection model is **ordered expansion and concatenation**, followed by
first-match selection:
1. Expand the selected presets into directory searches in their supplied order.
2. For each directory search, concatenate its selected filename groups in order,
substitute the application slug where needed, and join each filename to that
directory.
3. Concatenate the resulting candidate lists, preserving the positions of custom
directory searches and explicit file candidates.
4. Try candidates in order, stopping at the first selected file or an error as
described below.
Directory priority comes before filename priority: exhaust one directory's
filenames before trying the next directory. When several directories share a
filename list, their expansion is a Cartesian product traversed directory first.
Different directories may select different lists, so ordered expansion and
concatenation describes the complete model. Set union does not express its
precedence semantics.
The eventual documentation should explain this model using the applicable
mathematical nomenclature: ordered lists, ordered concatenation, and Cartesian
product where a shared filename list applies. Retain these names in relevant
implementation comments where they help readers understand the operations. The
model describes ordering without requiring eager construction of every candidate.
### Unix System Preset
The agreed Unix system preset is:
| Directory, in search order | Filename groups, in order |
| --- | --- |
| `/usr/local/etc/<appname>` | `[Named, Generic]` |
| `/etc/<appname>` | `[Named, Generic]` |
| `/etc` | `[Named]` |
This produces 14 candidates: six in each application-specific directory, then
`/etc/<appname>.yml` and `/etc/<appname>.yaml`. For example,
`/usr/local/etc/<appname>/main.yaml` precedes
`/etc/<appname>/<appname>.yml`. Selecting only `Named` for `/etc` is an ordinary
directory-search description; the selection algorithm needs no special exception.
### Additional Presets (OD-1 — Settled)
Provide the following independently selectable presets alongside Unix system.
Within each preset, search directories in the order shown:
| Preset | Directory | Filename groups, in order |
| --- | --- | --- |
| User configuration | `<user-config-dir>/<appname>` | `[Named, Generic]` |
| User configuration | `<user-config-dir>` | `[Named]` |
| Home directory | `<home>/.<appname>` | `[Named, Generic]` |
| Home directory | `<home>` | `[Named]` |
| Working directory | Current working directory | `[Named]` |
Resolve the user-configuration base with
[`os.UserConfigDir`](https://pkg.go.dev/os#UserConfigDir), the home base with
[`os.UserHomeDir`](https://pkg.go.dev/os#UserHomeDir), and the working-directory
base with [`os.Getwd`](https://pkg.go.dev/os#Getwd). Adopt the Go helpers'
platform-specific directory and environment behavior, including their errors;
the settled OD-2 rules below govern how discovery handles resolution errors.
The goal is to support familiar conventions through idiomatic Go. This feature
does not add a separate XDG compatibility layer or XDG system preset. A selected
user-configuration base has no additional hard-coded `<home>/.config` fallback.
The Home directory preset is a separate, explicit choice.
The working-directory preset searches only that directory and uses application-named
files; it does not walk ancestor directories. The consumer chooses precedence
between all presets. Selecting one does not automatically select any others.
### Illustrative Consumer API
Names below are illustrative and are not implemented Go API:
```go
// A simple system-wide application.
source := configkit.SearchConfig("myapp", configkit.UnixSystemDirectories())
```
```go
// A consumer-selected working-directory, user, then system search.
source := configkit.SearchConfig(
"myapp",
configkit.WorkingDirectory(),
configkit.UserConfigDirectory(),
configkit.UnixSystemDirectories(),
)
```
```go
// Explicit custom candidates followed by a selected conventional fallback.
source := configkit.SearchConfig(
"myapp",
configkit.Paths("/run/myapp/config.yml", "/opt/myapp/config.yaml"),
configkit.UnixSystemDirectories(),
)
```
Use the resulting source with ordinary loading or as a layered main input. Custom
searches and file lists participate at their specified position; they do not
silently append unselected presets. Reordering presets or their directory
searches changes search priority.
### Selection And Failure Behavior
| Situation | Selected behavior |
| --- | --- |
| Candidate is absent | Continue to the next candidate. |
| A candidate file is selected | Stop searching and load that file. |
| Candidate is inaccessible, unreadable, or not an accepted file type | Fail using normal source diagnostics. |
| Selected file fails parsing, version checks, composition, decoding, or validation | Fail without trying another candidate. |
| Entire search has no match | Absence is permitted by default; follow the shared absent-main lifecycle settled under OD-3 below. |
| Entire search has no match and is required | Fail with a diagnostic explaining the unsuccessful search. |
| Caller explicitly uses `File(path)` | Retain existing exclusive-file behavior, including errors for a missing file. |
Requiredness applies to the complete search, not to each preset or directory.
Permitting an absent file does not waive application version, schema, or domain
requirements; the remaining lifecycle may still reject an incomplete configuration.
Perform discovery before parsing the chosen main file. Do not implement fallback
by repeatedly running complete loads. Defaults, application resolution, secret
lookup, and final validation retain their existing lifecycle execution rules.
Once a file has been selected, later failure does not restart discovery.
### Construction And Filesystem Behavior
Constructors describe the search without filesystem access. Resolve dynamic base
directories and access candidate files during loading, so reusable descriptions
can observe changes on subsequent loads. Do not change the process working
directory or environment.
Reuse the host-file acquisition rules for selected files, including regular-file
checks, symlink handling, resource ownership, and source limits. The feature does
not require a new filesystem traversal engine, recursive directory search, or
new file-size limits. Candidate filenames and groups are bounded by their
explicit descriptions, rather than by scanning unrelated directories.
The exact Go names, constructors, and representation of search-wide options
belong in the implementation plan. Keep the public surface root-owned and keep
the single-preset case concise.
### Unavailable Bases And Platform Applicability (OD-2 — Settled)
Resolve directory bases only as the ordered search reaches them. Once an earlier
candidate is selected, later searches do not resolve their bases. Static invalid
search arguments still fail ordinary option validation before source acquisition.
An explicitly empty filename selection skips directory resolution as specified
under OD-4; it has no candidates to locate.
If a selected directory's base cannot be resolved, stop and report the error.
A missing directory or candidate file beneath a resolved base allows the search
to continue; a directory-resolution error does not. This distinction also applies
to optional searches: permitting no match does not suppress errors encountered
while searching. Preserve the agreed errors for inaccessible or unreadable
candidates.
Treat using the Unix system preset on an unsupported platform as an explicit
configuration error when that preset is reached. Specify its supported platforms
in the implementation plan. Do not translate the Unix preset into a different
platform's convention. User, home, and working-directory presets use their native
Go directory helpers.
This keeps search priority predictable when directory resolution fails. Consumers
select the presets appropriate to their application and environment; this proposal
does not add an option to skip unavailable bases or unsupported presets.
### No Match, Imports, And Selected Overlays (OD-3 — Settled)
Use a shared absent-main lifecycle for optional no-match and explicit `NoSource()`.
Allow imports to be enabled when the main file is absent: there are no main-file
import declarations to process, and enablement does not introduce automatic
directory scanning. Other actual sources retain their normal import behavior.
In layered loads, process underlays normally and retain the existing explicit
`OverlayFilesystem` requirement for an active overlay.
For ordinary loads with an active overlay and no main file, require an explicit
filesystem context to locate the overlay. Do not infer an overlay root from the
first or last searched directory. A missing selected overlay remains an error;
absence of a main file does not silently disable a requested overlay.
For an absent main input, a host filesystem context specifying only `Root` is
sufficient to locate the overlay; no main-file `BaseDir` is needed. If discovery
selects a host file, retain the normal file-context rules: the selected file
determines its base directory, an explicit `BaseDir` is rejected, and the file
must be contained within any supplied root. This allows one root-only context
to work with both selected and absent main inputs, subject to those existing
root and containment checks. An invalid context is an error, not a reason to
resume discovery.
Defaults, CLI overrides, application resolution, and validation continue through
the normal lifecycle. Main-version checking receives an absent main input and
may reject it under the application's existing policy. Create no synthetic empty
document or source record for the absent main file.
This deliberately relaxes the current `NoSource()` restrictions on imports and
on overlays with explicit context. Both ways of obtaining an absent main input
have the same behavior. Implementation must cover this lifecycle change as well
as candidate selection.
### Empty Composition And Implicit Preset Selection (OD-4 — Settled)
Require explicit preset or search selection to activate a convention. Supplying
no presets or custom searches produces no candidates and activates no implicit
fallback. Empty custom path lists and explicitly empty filename-group selections
also contribute no candidates. An empty component does not prevent later
components from contributing candidates.
A directory search with an explicitly empty filename selection does not resolve
its directory base. Static argument validation still applies. This gives empty
selections their no-candidate meaning without introducing directory-resolution
errors for a search that cannot select a file.
If the complete search is empty, an optional search follows the absent-main
lifecycle settled under OD-3; a required search fails as exhausted. Empty lists
are valid, supporting consumers that construct their searches programmatically.
Distinguish omission from an explicitly empty filename selection for a directory
search. Omitting the selection uses the agreed `[Named, Generic]` default;
explicitly selecting an empty list means no filenames. The eventual API must
represent both intentions clearly. Presets retain their specified filename groups.
Selecting a single preset keeps the simple case concise. Search-wide requiredness
provides the check for consumers that must find a configuration file.
### Slugs And Custom Path Interpretation (OD-5 — Settled)
Require a nonempty single-component application slug whenever a selected search
uses it to construct a directory or filename. Reject path separators, `.` and
`..`, and forms unusable as that component on the target platform. Preserve
spelling and case; do not trim, lowercase, or impose a kebab-case naming scheme.
Validation keeps the slug from changing the intended directory structure without
imposing a separate naming style.
Searches that do not use the slug do not require one. Examples include explicit
file candidates and a custom directory searched with only Generic filenames.
Treat custom paths as literal host paths. Resolve relative paths against the
working directory at load time. Do not expand shell variables, `~`, or wildcard
syntax. Consumers can construct expanded paths themselves; User and Home presets
provide the common directory-resolution conveniences. These rules keep custom
paths consistent with explicit file loading.
Custom filenames within directory searches are literal single filename
components. They cannot be absolute paths or contain subdirectory components;
use custom directory searches or explicit file candidates for those layouts.
They receive no application-name placeholder expansion. The Named group supplies
application-name expansion, while consumers may construct custom filenames
themselves before supplying them.
### Placement, Provenance, And Existing Features
The selected file participates as the actual file source. Preserve its physical
identity, effective placement, source origin, and passive resource context.
Relative imports and relative application resources use the selected file's
normal context. Discovery does not relocate overlay or CLI coordinates.
Missing candidates are not acquired sources and do not create source IDs,
configuration history, or explicit input presence. An entirely absent search
contributes no synthetic empty configuration file. Diagnostics should distinguish
an exhausted required search from a failed candidate. Existing selected-source
inspection remains the foundation; a new public per-attempt trace is not needed
for this proposal.
Preserve collection policies, inheritance, source-version rules, CLI ordering,
final validation, and frozen inspection after selection. Search-list order does
not change precedence among underlays, the main input, an overlay, and CLI values.
An explicitly selected overlay is not another main-file fallback candidate.
## Work Needed From The Baseline
The subsequent implementation plan should cover:
- Define filename-group, directory-search, preset, and search-source representations,
slug validation, and a search-wide requiredness option. Keep construction
separate from acquisition and the simple preset selection concise. Distinguish
omitted and explicitly empty directory-search filename selections.
- Implement ordered expansion and concatenation for presets, filename groups,
custom searches, and explicit file candidates, followed by first-match selection
through existing file access. Resolve each source once per consumption before
entering its parse and composition lifecycle.
- Integrate selected and absent outcomes with ordinary and layered main inputs,
placement, imports, application version checking, and overlay contexts according
to OD-3, including root-only host contexts for absent main inputs and normal
file-context checks when a file is selected. Preserve ownership and close
acquired handles on success and failure.
- Preserve real selected-source metadata and safe diagnostics without treating
absent candidates as configuration contributions.
- Exercise preset, directory, filename-group, and filename ordering, reversed
group precedence, the Unix system preset's 14 candidates and named-only `/etc`
search, custom-list composition, both filename extensions, no-match behavior,
empty components and searches, omitted versus empty filename selections,
skipped directory resolution for empty filename selections, slug-dependent and
slug-independent searches, literal custom paths and filename components,
required searches, unavailable preset bases, errors that must stop fallback,
repeated loads, and untouched explicit `File`
behavior. Cover imports, overlays, underlays, defaults, CLI, source versions,
source contexts, and source-list/inspection evidence at their boundaries.
- Clarify the architecture policy's consumer-selected discovery boundary. Record
any warranted durable ownership decision in an ADR; keep preset filenames and
API mechanics in their canonical contract when implemented. Update consumer
examples and the configuration contract when the feature lands. Explain the
three-part discovery model and its mathematical terminology in the eventual
documentation, with simple preset selection and custom composition examples.
This roadmap does not change implementation, policy, or ADRs by itself. Coordinate
implementation with the ongoing sequence integration audit rather than assuming
its in-progress changes are part of a fixed implementation baseline.

85
docs/roadmap/future.md Normal file
View File

@@ -0,0 +1,85 @@
# Potential Future Features
This document lists potential enhancements for consideration in future ConfigKit
releases. Entries are not accepted contracts, implementation plans, or release
commitments. Adopting a candidate requires an explicit design decision and a
separate plan. Significant architectural exclusions and their rationale belong
in ADRs; this document does not maintain a list of rejected proposals.
## 1. Recursive body merging for identified records
Status: deferred. The implemented
[collection policy](../config.md#strict-document-composition) uses `upsert` to
replace a complete matched record. Recursive merging of fields inside matching
records remains a separate candidate and would revisit the whole-record update
boundary selected by [ADR 0017](../adr/0017-collection-sequence-policy.md).
Consider this only in response to a concrete consumer need. A proposal would need
to define conflicts for overlapping body fields, removal of omitted fields,
presence and ordering, and how provenance, history, sensitivity, and resource
context follow partially retained records. Any change requires a new decision and
implementation plan; this entry does not alter current upsert behavior.
## 2. Required version declarations for selected sources
Status: deferred. PromptKit requested a way to require version declarations on
a selected subset of source files while permitting other fragments to omit them.
### Motivation and proposed behavior
PromptKit could require each collection's root file (for example,
`collection.yml` or `meta.yml`, with naming still undecided) to declare an
accepted specification version. Other files would use the existing
[check-when-present behavior](../config.md#shared-source-version-checks).
This would enforce a rule that otherwise remains a documentation convention.
All declarations would use the same application-owned `Definition.Version`
path and acceptance policy. The proposal concerns where declarations are
required; it does not introduce independently versioned collections or subtrees.
A root declaration would not prove that headerless descendants declare a
compatible version or replace final configuration validation.
### Questions to resolve before implementation
- **Selection API:** should callers mark explicit inputs, select sources by
path or predicate, or annotate imports? An input-level requirement is simpler,
but cannot by itself select a root reached only through an import.
- **Scope:** does a requirement apply only to the selected document or also to
its imports? Applying it only to that document best fits PromptKit's request;
imported fragments could still declare versions checked by the shared policy.
- **Mode interaction:** how should selection interact with disabled source
checks? Require an enabled mode, or activate checking for selected sources?
Selection would strengthen check-when-present behavior and add no requirement
beyond the load-wide required mode.
- **Source handling and evidence:** how should selection work across file,
reader, byte, and mapping inputs, glob matches, and repeated imports? Define
behavior for absent optional inputs and preserve source-local diagnostics,
inspection evidence, and existing sensitivity handling.
## 3. Performance experiments
Status: deferred pending evidence. The completed performance audit identified
four internal optimization candidates for separate investigation:
- Branch-local explanation replay instead of the current whole-tree replay.
- Redesigning the private metadata-copy handoff while preserving detached public
records.
- Caching schema descriptors across loads.
- Indexing complex contributor-trace membership while preserving its equality
rules and compact linked traces.
These are experiments, not committed implementation work or promised speedups.
Reconsider them with evidence that the benefit justifies the ownership,
retained-memory, or equivalence risks. The completed audit and implementation
evidence are preserved in Git history at `8e91a2b` under `docs/roadmap/`.
### Questions to resolve before implementation
- Which representative workloads show enough remaining cost to justify each
optimization, and what measurements would establish a useful improvement?
- Can narrower replay and membership indexes preserve explanation results,
ordering, provenance, and sensitivity behavior?
- Can metadata handoff changes preserve detached public records and ownership
across loads without introducing aliasing?
- What cache lifetime and concurrency design would make schema reuse worthwhile
without excessive retained memory?

View File

@@ -1,580 +0,0 @@
# Implement configuration input destinations
Status: complete. Stages 1–12 are implemented and audited. The
[feature roadmap](input-destinations.md) owns the approved behavior and rationale; the
[consumer request](promptkit-feature-request.md#public-acceptance-scenarios)
supplies the public acceptance scenarios. This document owns execution and
completion evidence. Planning baseline: `6353598`.
## Working instructions
- Start each stage with `AGENTS.md`, [development.md](../development.md), the
applicable policies, and working-tree inspection. Use graph-first code
discovery. Preserve unrelated changes and previously completed stages.
- Implement only that stage and its supporting tests/documentation. Mark it
complete here with actual commands and evidence, then commit the nonempty
validated unit with a short plain-English message. Subsequent stages remain
planned. A stage is not complete solely because its narrow tests pass.
- Keep early mechanics private until the complete engine behavior is ready.
Root destination fields land in Stage 10. Ordinary root loading must remain
working throughout. Do not publish a partially supported public placement API.
- Follow the existing engine/document/YAML boundaries. Reuse strict composition,
recursive overlay, sibling inheritance, paths, history, and sensitivity.
No dependencies, toolchain changes, alternate mergers, mount registry,
per-fragment lifecycle, import-destination syntax, resource discovery, or new
release gates are needed. These are scope boundaries, not new prohibitions
on separately approved future work.
- Update current-behavior documentation when public behavior lands; keep future
claims here or in the roadmap until then. Add the ADR in Stage 1 under the
documentation policy's accepted-decision exception.
- Use focused offline tests while iterating; run `./scripts/check.sh` before
committing production changes. Documentation-only stages need whitespace and
local-link checks. Stage 12 adds full ownership/race validation. Tests protect
observable behavior, not wrapper allocation or helper-call counts. Reuse
coverage rather than repeat an entire loading matrix at every layer.
- No benchmark campaign or public complexity guarantee is required. Prefer
straightforward bounded walks and wrapping each acquired contribution once;
avoid rescanning all preceding contributions for every new input.
- Do not push, tag, publish, update downstream dependencies, or retire unfinished
records. Release compatibility review is separate from publication.
## Resolved implementation decisions
1. Add root-owned `Input.Destination Path` and `SourceInfo.Destination Path`,
mirrored privately in engine input/source records. Extend `loadInput` and
explicit root/engine conversion and cloning. No new loading entry point,
public wrapper type, option, or origin field is needed. Ordinary `Load`
continues to supply root placement.
2. The zero path means root. Validate `Path.valid()` and reject every explicit
index segment, including a negative index. Normalize parsed tokens to literal
mapping-key segments: `/0` means the key `0`, not sequence element zero.
Empty, dot, dot-dot, slash-containing, tilde-containing, and numeric keys keep
existing semantic-path meaning. Do not split dots, interpret filesystem
traversal, enforce identifier grammar, or add namespace uniqueness.
3. Reject destination segments equal to `configkit` or `extends`: placement
would introduce a reserved mapping key with a mapping value. Substrings such
as `myextends` are ordinary keys. This preserves the approved structural
rules rather than adding an application naming policy. Source-root import
directives are still processed before placement.
4. Validate destination shape/reservations for all declared inputs during
grouped option preflight, before reading any source. Reuse
`CodeOptionsInvalid` for invalid destination declarations; include the
offending semantic path when representable, with no fabricated physical
location. An invalid source still follows existing source-option validation.
A valid destination on `NoSource` contributes no nodes, source record, or
budget charges. No extra error type or exact message contract is introduced.
5. Separate acquired source syntax from application placement. Retain original
parsed source metadata for filesystem/directive handling. Strip source-root
directives, then wrap each application body at the normalized destination
before fragment version checks and strict composition. Imports inherit the
same destination transitively. Do not wrap both a source application and its
recomposed result; every retained application must already use effective
coordinates. Content roots remain mappings under existing source contracts.
6. Wrapping a body at `Keys("a", "b")` creates `{a: {b: body}}` as private
document mappings. Actual body nodes and entries keep their physical source
coordinates. Introduced mappings/entries use the contributing document's root
location as a documented source fallback, not purported authored coordinates.
They have the same contributing source ID and create no synthetic source.
Retained history trees remain immutable and separate from assembly mutation.
7. A present empty body creates explicit destination mappings, including an
import-only source whose application body is empty. It still cannot clear
lower mappings. A missing optional import and `NoSource` remain absent. Empty
source text remains the existing invalid document, not an empty mapping.
8. `VersionRule.Path` stays an effective application path. Check main once after
its own imports compose and before underlays/overlay/CLI, at the existing
phase. Imported and underlay claims are checked against placed application
content, including scalar/null/sequence ancestors replacing a protected path.
A mapping ancestor with no protected descendant is not a version claim.
Mounted domain `version` fields are ordinary data. Existing inheritance,
selected-overlay, CLI protection and exact-path numeric conversion remain;
no nested blanket conversion or additional fragment checker is introduced.
9. Placement does not alter physical source identity, filesystem namespace,
source IDs, acquisition order, imported-from locations, or resource contexts.
Repeated physical sources in one strict group still fail even at different
destinations. The same physical source in separate tiers retains the existing
independent source applications/records and each record's own destination.
Overlay and CLI source records have root `Destination`; they are not mounted
merely because main is mounted. Active layered overlays retain their explicit
independent filesystem selection and application-root meaning.
10. Value-level paths use effective coordinates. Keep genuine source-local
import-directive diagnostics and parse/read failures at their original
locations; do not invent a logical child path when parsing cannot identify
one. Prefix existing application-relative diagnostic paths exactly once
where available. Preserve structured codes, related physical locations,
deterministic ordering, and value-free messages.
11. Use current depth/node limits, not a new destination cap. With root depth
zero, each destination segment adds one level and, under `countInputNodes`,
one mapping node plus one key. Retain current raw input accounting (including
directives); charge only the additional `2 * segmentCount` synthetic nodes
per acquired body, once, to the shared input budget. Placement adds no bytes,
acquired sources, import nesting, or glob visits. Validate placed application
depth and per-document node bounds before composition; share accounting
across inputs and imports. Precheck wrapper depth/count before allocating
wrappers. Use existing source/import limit diagnostics in their acquisition
contexts; retain projection, expansion, and history bounds independently.
Root placement adds no charge or new rejection. NoSource adds none either.
12. Cloned source records include independently owned destination paths at every
existing publication boundary: results, load errors, metadata/inspection,
callback input information, and root conversion. Passive resource contexts
remain keyed by the real source identity; inspection must work without an
open configuration handle after load. This does not extend caller-owned
filesystem or callback resource lifetimes.
## Stage 1 — Record the decision and capture the baseline
Status: complete. Scope: decision record and evidence, no feature code.
1. Read the roadmap, request, relevant policies, and ADRs 0001, 0003, 0006,
0008, and 0009. Inspect the owners identified in the roadmap and the function
map below. Confirm the baseline and worktree before starting.
2. Run `./scripts/check.sh`; record the commit, Go version, and results here.
Locate existing coverage for root loading, strict underlays, version ownership,
repeated sources, history, resource contexts, and detached records.
3. Write `docs/adr/0011-input-destinations.md` after confirming the number is
unused. Record the approved input-placement decision as Accepted, with the
roadmap owning implementation status. Follow the repository ADR format.
Focus on ConfigKit, put rejected options only in Alternatives Considered,
and avoid negative parallelism elsewhere. No PromptKit-specific semantics.
4. Record the compatibility assessment under the release policy: adding fields
preserves zero-value/keyed-literal use, but callers using unkeyed literals
for `Input` or `SourceInfo` must migrate to keyed literals. Treat the feature
as minor-release work; select a version and write its note only during
separately authorized release preparation.
Validated: `./scripts/check.sh` (go1.26.8 linux/amd64) passed on candidate
`d3d468a8b47d780787fca329ff65b107d98ca59f`; this includes formatting,
whitespace, local documentation links, tests, vet, and build. The planning
baseline `6353598bd6cce2eb78a5fe990e144cc0cadf1280` is present in history. The
worktree was clean before this stage.
Coverage located for later destination work:
- Root and equivalent source loading: `TestEquivalentSourceFormsPreserveInputSemantics`
(`facade_equivalence_test.go`) and
`TestFacadeLayeredZeroUnderlaysMatchesOrdinaryLoad` (`facade_layered_test.go`).
- Strict underlays and group budgets: `TestGroupedLoadStrictConflictsRepetitionAndBudgets`
and `TestGroupedLoadPrecedenceSourceOrderAndSingleLifecycle`
(`internal/engine/load_request_test.go`).
- Version ownership and imported claims: `TestLoadRejectsImportConflictsAndFragmentVersions`
(`internal/engine/imports_test.go`) and version-path coverage in
`internal/engine/load_test.go`.
- Repeated physical sources: `TestRepeatedImportsAcrossTiersAndReaderConsumption`
(`facade_equivalence_test.go`).
- History and source contexts: `TestUnderlayHistoryRetainsLaterMappingContributors`
(`facade_underlay_origins_test.go`) and
`TestFacadeSourceContextsFollowOriginsWithoutQueryIO`
(`facade_resource_context_test.go`).
- Detached records: `TestLoadMetadataReflectsDefaultsInputAndDetachedRecords`
(`internal/engine/load_test.go`) and
`TestMetadataQueriesReturnDetachedRecords` (`internal/engine/metadata_test.go`).
The decision is recorded in [ADR 0011](../adr/0011-input-destinations.md).
Compatibility assessment: adding the two public fields breaks callers using
unkeyed literals for `Input` or `SourceInfo`; keyed and zero-value use remains
compatible. The release policy permits the intentional pre-1.0 contract change
in a minor release when the release note states impact and migration. Version
selection and release-note preparation remain out of scope until separately
authorized. No feature code or current behavior contract changed.
## Stage 2 — Add private destination normalization and wrapping
Status: complete. Scope: pure private mechanics with bounded unit tests.
1. Add a small engine helper file for normalized mapping-only destinations and
constructing placed document bodies. Follow decisions 2–7; keep helpers
private and avoid introducing a second path abstraction.
2. Validate invalid paths, explicit indices, and exact reserved tokens. Normalize
parsed numeric tokens into keys, preserving literal text and pointer escaping.
3. Build wrappers without mutating the supplied tree. Preserve body locations;
give introduced entries/mappings the source-root fallback. Implement depth and
node measurement/prechecks usable with existing limits, including the extra
synthetic-node count; aggregate charging is wired in Stage 7.
4. Cover root identity/equivalence, nested empty mapping, literal/escaped/numeric
keys, invalid index/path, exact versus substring reserved keys, owned paths,
unchanged body coordinates, and bounded wrapper checks. Do not count helper
invocations or fix an allocation strategy in tests.
Validated with `go test ./internal/engine -run 'Destination|PlaceDocument'`
and `./scripts/check.sh` (go1.26.8 linux/amd64); both passed. The private
helpers normalize mapping-only destinations, preserve authored nodes and source
coordinates, and check per-document depth/node bounds before allocating wrappers.
No loader accepts a new public field yet.
## Stage 3 — Integrate private non-import input placement
Status: complete. Scope: engine request plumbing and ordinary acquired bodies.
1. Add destination fields to engine `Input`, `loadInput`, and `SourceInfo`.
Preserve ownership through engine `LoadLayered` request construction,
`cloneSourceInfo`, and source-record copies. Keep the root facade unchanged.
2. Extend grouped preflight to validate/normalize destinations before source
reads. Use the existing diagnostic accumulator and options-invalid category.
Ordinary `Load` supplies root placement through its existing request adapter.
3. Thread placement into `assembleBaseInputTracked` without confusing raw
`parsedSource` with effective `assembledInput.document`. Preserve the root
path through existing wrappers/callers. For imports-disabled acquisition,
validate disabled directives on raw content, place the body, and retain the
destination on the acquired source record. NoSource still short-circuits.
4. Use engine loads to cover mounted main and underlay bodies, omitted versus
explicit root destinations, empty mapping versus NoSource, and preflight
rejection without consuming a test-owned reader. Reuse current source-kind
acquisition tests; full source equivalence is verified publicly in Stage 10.
Validated with `go test ./internal/engine -run 'Destination|PlaceDocument|Grouped'`
and `./scripts/check.sh` (go1.26.8 linux/amd64); both passed. Private non-import
placement reaches assembly, with root behavior unchanged. Imports are the next
private integration step.
## Stage 4 — Carry placement through import acquisition
Status: complete. Scope: source-local directives and placed imported applications.
1. Thread a normalized destination through `loadImportedDocumentsTracked`,
`loadImportedWithAccessTracked`, and `importTraversal`, retaining root defaults
for current private callers. Place the selected body's application content
after `splitImportDirectives`; do the same for every imported body.
2. Set placement on selected/imported source records, including error records
once a source has been acquired. Keep `ImportedFrom` at the physical directive.
Run imported `fragmentVersionClaim` against placed bodies and retain placed
bodies in `state.documents` before `composeDocuments` builds applications.
3. Leave filesystem joins, containment, glob traversal, optional missing inputs,
active cycles, visited identities, and acquisition IDs/order unchanged.
Destination must not become part of the repeated-source identity key.
4. Test native and host transitive imports, nested source-root directives,
import-only bodies, and mounted imported protected versus ordinary version
paths. Verify a repeated file at two destinations in one group still fails,
including an import/direct-input alias. Reuse cycle/containment regressions.
Validated with `go test ./internal/engine -run 'Destination|PlaceDocument|Import|Grouped'`
and `./scripts/check.sh` (go1.26.8 linux/amd64); both passed. Retained imported
contributions have effective placement and physical source identity, with no
double wrapping or application-level directive leakage.
## Stage 5 — Complete strict tiers and main version ownership
Status: complete. Scope: assembly and version interactions, not a new merger.
1. Review `acquireUnderlayGroup`: version checks must use placed content, and
documents taken from `acquired.composition.applications` must already be
placed. Recompose strict peers with ordinary `composeDocuments`; preserve
per-source applications, origins, UnderlayIndex, and input accounting.
2. In `executeLoadRequest`, main's version check uses its placed main/import
composition at the existing point. `assembleLayeredInput` recursively overlays
completed underlay groups beneath main, selected overlay, and CLI as before.
Do not mount the final assembly or prepend main's destination to upper tiers.
3. Test disjoint same-destination peers, different destinations, equal and unequal
conflicts, ancestor/descendant destinations, and a strict conflict despite an
upper override. Verify recursive mapping overlays, atomic sequences, null,
explicit false/zero, and version-only domain overrides retaining lower fields.
4. Exercise mounted main with a nested VersionRule, absent root declarations,
imported/underlay direct and ancestor claims, and nonclaiming mapping ancestors.
Check the hook runs once and does not inspect each fragment independently.
Preserve exact configured-path integer conversion and ordinary nested typing.
Validate: destination/composition/overlay/version/grouped tests and everyday
check. Validated with `go test ./internal/engine -run 'LayeredDestination'`,
`go test ./internal/engine -run 'Destination|Composition|Overlay|Version|Grouped'`,
and `./scripts/check.sh` (go1.26.8 linux/amd64); all passed. The new mounted
cases verify strict same-tier conflicts and disjoint composition, independent
destinations and nested paths, recursive/atomic overlay behavior, explicit
null/false/zero, and main-only nested version checking after imports compose.
Done: placed and authored equivalents agree on values and conflicts; main
ownership and lifecycle timing are preserved.
## Stage 6 — Reconcile diagnostic coordinate systems
Status: complete. Scope: useful paths without fictional source locations.
1. Audit early acquisition, import, fragment-version, and composition failures.
Use one narrow path-prefix translation where diagnostics genuinely identify
application content; do not blanket-prefix every diagnostic or double-prefix
diagnostics already produced by placed trees.
2. Preserve syntax/read/directive locations and related import sites. Value
conflicts and later typed/resolver/validation failures use effective paths
but original content coordinates. Invalid introduced structure identifies
the destination declaration rather than a nonexistent source wrapper line.
3. Add focused assertions for a mounted conflict with two real sources, a mounted
decode or validation error, an imported version error, invalid destination,
and malformed source-local directives. Test stable codes/paths/locations and
nil results, not whole messages or callback choreography.
Validate: destination/diagnostic/import/version/decode tests and everyday check.
Validated with `go test ./internal/engine -run 'LayeredDestinationDiagnostics'`,
`go test ./internal/engine -run 'Destination|Diagnostic|Import|Version|Decode'`,
and `./scripts/check.sh` (go1.26.8 linux/amd64); all passed. The mounted
conflict, decode, and imported-version assertions use effective application
paths with authored source locations; invalid destinations have no physical
location; malformed source-root directives retain their authored path and
location. Later value diagnostics are produced from placed trees, while directive
diagnostics retain their raw source coordinates. Post-review remediation also
rebases known Mapping value-builder failure paths, which are produced before
placement. `TestFacadeDestinationMappingFailurePaths` covers mounted main and
underlay failures, escaped keys and sequence-index intent, cycles, unchanged
root paths, and unchanged source-constructor failures. Its mounted value cases
failed before the fix and pass afterward.
Done: diagnostics consistently distinguish application paths from source syntax.
## Stage 7 — Complete shared placement accounting
Status: complete. Scope: resource bounds with no new public limit system.
1. Wire Stage 2's prechecks and synthetic-node charges into both tracked ordinary
acquisition and import traversal, using `importAccounting` and current limit
structures. Charge each source body once, including empty import bodies.
2. Preserve existing raw byte/source/node accounting and imported directive
inspection. Additional wrappers count in per-body depth/node checks and
shared aggregate nodes; recomposition must not charge them again. Ensure
selected overlays and CLI start from totals including placement charges.
3. Test below/at/above relevant bounds using small private limit fixtures where
existing seams permit; add a narrow private seam if necessary. Cover deep
body plus destination, many shallow mounted inputs, imported wrappers, and
empty mappings. Verify root placement and NoSource do not add charges.
Preserve history/expansion limits; do not turn fixture values into defaults.
Validated with `go test ./internal/engine -run 'Destination|Import|Grouped|Overlay|Override'`
and `./scripts/check.sh` (go1.26.8 linux/amd64); both passed. New coverage in
`TestDestinationPlacementCountsAgainstSharedNodeBudget`,
`TestMultipleMountedInputsSharePlacementCharges`,
`TestImportedEmptyBodiesChargeEachDestinationWrapper`,
`TestSelectedOverlayAndCLIUsePlacementNodeCharges`, and
`TestNoSourceAndRootPlacementAddNoWrapperCharges` checks totals below, at, and
above the boundary, multiple shallow inputs, imported empty bodies, and charging
of upper tiers from mounted inputs. `TestPlaceDocumentRootAndBounds` continues
to cover per-document depth/node boundaries; existing grouped accounting tests
cover unchanged raw source/byte charging. Done: placement cannot bypass current
budgets and introduces no unrelated caps.
## Stage 8 — Preserve provenance, history, and source resource contexts
Status: complete. Scope: engine inspection and retained evidence.
1. Audit `compositionOrigins`, `completeCompositionOrigins`, application replay,
metadata construction/finalization, and source-record cloning against placed
applications. Prefer feeding placed trees into existing processing rather
than adding another path-offset index or rewriting final metadata afterward.
2. Verify explicit destination containers, actual leaves, composite origins,
superseded/removed descendants, and root/source fallbacks. Historical and
effective indexes keep independently owned paths and existing shape semantics.
3. Preserve source-ID resource contexts through imports, surviving lower-tier
values, and inheritance. Test completed-result and resolution-time context
queries against real relative files, without making ConfigKit open the
referenced application resource or retain loading handles.
4. Exercise the same physical source in separate tiers with different placement,
inspect each source record, and verify independent destination paths. Repeat
inspection after comparison and independent loads to detect retained mutation.
Validated with `go test ./internal/engine -run 'Destination|Metadata|Provenance|History|Resource|SourceContext'`,
`go test -race ./internal/engine`, and `./scripts/check.sh` (go1.26.8
linux/amd64); all passed. `TestLayeredDestinationsRetainOriginsHistoryAndDetachedRecords`
checks synthetic-container fallback locations, authored leaf coordinates,
composite origins, removed-descendant history, and the same host file retained
at distinct destinations in separate tiers before and after comparison and an
independent load. `TestLayeredImportedInheritedValuesRetainResourceContexts`
uses real temporary files to verify resolution-time and completed-result
relative-resource lookup through an imported surviving parent and its inherited
child. Existing metadata and resource-context tests continue to cover detached
records and loading-handle closure. Done: inspection explains effective
placement and physical origin without consumer reconstruction.
## Stage 9 — Verify final inheritance, sensitivity, and lifecycle integration
Status: complete. Scope: complete private engine behavior before facade exposure.
1. Resolve sibling inheritance only after full source precedence using the
existing expansion path. Cover a child and parent supplied by separate peers,
nested destination-local siblings, cancellation, and an inherited relative
resource retaining its declaring context. Cross-collection search is unchanged.
2. Reuse existing inheritance-version, overlay, and CLI guards; add targeted
mounted cases for actual protected paths and their ancestors. Do not reject
unrelated inheritance merely because it shares a mapping ancestor.
3. Test effective-path secret predicates, field tags and recorded dependencies,
superseded classified values, safe effective output/history/explanation, and
bilateral diff redaction using disposable canaries. Compare mounted versus
explicitly wrapped loads for equal effective values and no differences.
4. Verify defaults, decoding, resolution, secret lookup, and validation execute
once on the final shape; failures return no usable result. Reuse existing
ordinary-load lifetime/ownership coverage and add mounted protection where
placement creates a distinct risk.
Validate: destination/inheritance/secret/sensitivity/explain/diff/lifecycle tests
and everyday check. Validated with
`go test ./internal/engine -run 'Destination|Inheritance|Secret|Sensitivity|Explain|Diff|Load|Version|Grouped' -count=1`,
`go test -race ./internal/engine`, and `./scripts/check.sh` (go1.26.8
linux/amd64); all passed.
`TestLayeredDestinationInheritanceUsesFinalSiblingScopes` verifies parent and
child contributions from separate peers, a higher-tier parent update, nested
destination-local siblings, and cancellation. `TestLayeredDestinationInheritanceDoesNotSearchOtherCollections`
keeps sibling lookup local. `TestLayeredMountedVersionProtectionCoversInheritanceAndUpperTiers`
protects inherited values, scalar/null ancestors, consumed directives, selected
overlays, and CLI overrides at mounted paths while allowing nonclaiming mapping
ancestors and unrelated inheritance. The coverage exposed an ancestor gap in
the existing inheritance-version check; it now applies the shared fragment claim
logic to the transferred parent subtree.
`TestLayeredDestinationLifecycleAndSensitiveInspectionUseFinalShape` checks one
defaults/resolution/secret-lookup/validation lifecycle, final mounted decoding,
field tags and effective-path predicates, superseded history, and safe effective
output/explanation against canaries; it compares mounted and explicitly wrapped
loads for equal configuration and no diff. `TestLayeredDestinationDiffUsesBilateralSensitivity`
checks redaction from either side and recorded dependencies, and
`TestLayeredDestinationDecodeFailureReturnsNoResultOrLaterCallbacks` checks a
mounted decode failure returns no result. Stage 8's
`TestLayeredImportedInheritedValuesRetainResourceContexts` continues to verify
the declaring context for inherited relative resources. Done: approved engine
semantics integrate without per-fragment loading or a post-return processing
pass.
## Stage 10 — Expose the root-owned facade and public acceptance tests
Status: complete. Scope: the two public fields and complete consumer behavior.
1. Add `Input.Destination Path` and `SourceInfo.Destination Path` to root types.
Extend `toEngineInput`, `fromEngineSourceInfo`, `toEngineSourceInfo`, and all
source publication paths with owned conversion. Run existing public/import
boundary tests; expose no engine nodes, aliases, or bridge methods.
2. Document zero/root behavior, mapping-only paths, main/underlay parity,
inherited import placement, source-coordinate fallback, and source ownership
beside declarations. Update the configuration contract for implemented input
destinations, preserving canonical ownership of shared semantics.
3. Add external-package public-load coverage for equivalent host file, native
fs.FS file, byte, reader, and Mapping sources. Cover default/root destinations,
literal escaped/numeric keys, empty mapping, NoSource, and invalid declarations.
Include one public mounted main case, not just underlays.
4. Add representative public tests tying final configuration to metadata,
source placement, history, resources, callbacks, and safe diffs. Mutate returned
record copies and repeat queries/loads to confirm detachment. Reuse engine
matrices; public tests demonstrate supported integration rather than every
private branch. Confirm failed loads expose detached source destinations.
Validated with `go test . -run 'Destination|FacadeLayered|PublicFacadeBoundary|DependencyImportBoundary' -count=1`,
`go test -race ./...`, and `./scripts/check.sh` (go1.26.8 linux/amd64); all
passed.
`TestFacadeInputDestinationsAcrossSourceKinds` exercises host, native
filesystem, bytes, reader, and mapping inputs with literal escaped and
numeric-looking mapping keys. `TestFacadeDestinationRootEmptyMappingNoSourceAndInvalidPaths`
covers omitted/empty root placement, empty mapping presence, absent `NoSource`,
invalid index/reserved destinations, and reader preflight. `TestFacadeImportedSourcesRetainInputDestination`
checks public transitive import placement. `TestFacadeMountedMainAndUnderlayInspectionResourcesAndDiff`
ties mounted main/underlay values to metadata, both source destinations, callback
source context, relative-resource access during and after loading, history, safe
effective/explanation rendering, and bilateral diff redaction; it also mutates
returned records and confirms later queries and comparisons remain unchanged.
`TestFacadeFailedLoadExposesDetachedSourceDestination` verifies failure records,
and `TestSourceInfoDestinationConversionsAndCopies` covers root/engine source
record conversion. Existing public-boundary tests pass with the new root-owned
fields. Done: destination selection and inspection are available through the
supported ConfigKit import path.
## Stage 11 — Add maintained simple and collection-style consumer examples
Status: complete. Scope: executable adoption examples with consumer-owned types.
1. Add a minimal mounted-fragment example using `Input.Destination` in an
ordinary layered load. Show literal keys and root-default compatibility
without introducing consumer parsing or generic merge helpers.
2. Add one representative collection assembly under `examples/consumers`: peer
prompt/profile fragments, collection metadata with ordinary `version`, a
source-root import, local sibling inheritance, and an intentional higher-tier
version-only override retaining the body. Keep the application VersionRule
main-owned. Use a controlled native filesystem or temporary files.
3. Demonstrate effective-path inspection plus source-relative resource lookup
during resolution and from the result, including an inherited/surviving field.
Application code owns opening/interpreting the resource and any qualified IDs.
4. Add tests for final values, presence, actual source placement/coordinates,
resource context, and expected conflict behavior. Link maintained examples
from the consumer guide; add a small executable root example if useful for
discovery without duplicating the complete scenario.
Validated with `go test ./examples/consumers -count=1`,
`go test . -run '^Example' -count=1`, and `./scripts/check.sh` (go1.26.8
linux/amd64); all passed, including local documentation links.
`Example_inputDestination` demonstrates a literal mounted mapping path and an
ordinary root input without consumer-side parsing or merging.
`LoadCollectionBundle` and `TestCollectionBundleAssemblesMountedPeersAndResources`
exercise prompt/profile peer sources, imported collection metadata with an
ordinary version label, main-owned schema-version checking, local sibling
inheritance, and a higher-tier prompt version-only change that retains the rest
of its body. The resolver and `ReadCollectionPromptContent` follow direct and
inherited `content_file` provenance to the declaring native-filesystem context.
The test checks final values, explicit presence, source destinations and authored
coordinates, relative resources, and the inherited field's origin.
`TestCollectionPeerPromptConflictsRemainStrict` preserves expected conflict
behavior. The examples are linked from the consumer adoption guide. Done: simple
and representative consumers substantiate the same model without a compensating
structural pass.
## Stage 12 — Reconcile documentation and audit the complete implementation
Status: complete. Scope: final integration audit and evidence, not release work.
1. Update README navigation, consumer guidance, the component overview, and
development reading/test maps. Add ADR 0011 to navigation. Update architecture
policy only as needed to recognize placement within existing assembly and
source ownership, linking precise behavior to the configuration contract.
Do not change unrelated policies, deferred boundaries, or published notes.
2. Audit every resolved decision, roadmap behavior, and request acceptance row
against implementation and tests. Record the corresponding test names here;
for reused coverage explain the behavior it proves. Do not mark complete
based on green tests that do not exercise mounting.
3. Review the complete baseline-to-candidate diff for accidental strengthening:
extra naming rules, namespace uniqueness, main-only restrictions, changed
merge/version semantics, invented source-read ordering guarantees, new limits,
or expanded secret policies. Remove temporary helpers/unsupported branches
left by staged integration. Confirm original source coordinates remain real.
4. Run `./scripts/check.sh` and
`GOTOOLCHAIN=local GOPROXY=off go test -race ./...`. Review source-kind and
placement ownership coverage, error disclosure, complete-on-return handling,
and root/private boundaries. Record commit, Go version, results, and any
limitations. No release command, CI waiting, benchmark, or downstream upgrade.
5. Mark this plan and the roadmap implemented only when code, public examples,
and owning contracts agree. Retain completed planning evidence until separately
authorized release preparation.
Audit evidence for the approved decisions and request acceptance surface:
| Behavior reviewed | Evidence and what it proves |
| --- | --- |
| Root-owned `Input.Destination` and `SourceInfo.Destination`; detached conversions and publication | `TestSourceInfoDestinationConversionsAndCopies`, `TestFacadeFailedLoadExposesDetachedSourceDestination`, and `TestFacadeMountedMainAndUnderlayInspectionResourcesAndDiff` verify root/engine conversion, error records, and returned record detachment. `TestPublicFacadeBoundary` and `TestDependencyImportBoundary` verify no engine types cross the facade. |
| Literal mapping keys, parsed numeric keys, reserved structural tokens, and invalid-path preflight | `TestNormalizeDestinationUsesLiteralMappingKeys`, `TestNormalizeDestinationRejectsIndicesAndReservedKeys`, and `TestLayeredLoadPreflightsDestinationsBeforeReadingSources` cover mapping-only normalization and rejection before reader consumption; `TestFacadeDestinationRootEmptyMappingNoSourceAndInvalidPaths` verifies the public error boundary. |
| Placement of acquired bodies, empty mappings versus absence, imports, all source kinds, physical identity, and authored coordinates | `TestFacadeInputDestinationsAcrossSourceKinds` covers host/native/bytes/reader/mapping sources; `TestFacadeSameFragmentMountsAtSeparateCollectionDestinations` proves independent public collections can retain the same local key. `TestLayeredImportOnlyInputMaterializesDestination`, `TestLayeredHostImportsInheritInputDestinationTransitively`, `TestLayeredNativeFilesystemImportsInheritInputDestination`, and `TestLayeredDestinationsDoNotChangeRepeatedSourceIdentity` cover inherited import placement and unchanged identity. `TestPlaceDocumentWrapsEmptyMappingAndPreservesSourceCoordinates`, `TestPlaceDocumentPreservesAuthoredEntryCoordinates`, and `TestLayeredDestinationDiagnosticsUseEffectivePathsAndAuthoredLocations` distinguish fallback wrapper locations from authored coordinates. |
| Strict composition, explicit-wrapper equivalence, precedence, empty values, and domain `version` overrides | `TestLayeredDestinationStrictCompositionBoundaries`, `TestLayeredDestinationMatchesExplicitlyWrappedInput`, `TestEmptyMountedMappingRetainsLowerChildren`, and `TestLayeredDestinationOverlayRetainsOrdinaryValueSemantics` prove existing group and overlay semantics are retained; the latter includes ordinary field-only updates rather than whole-record replacement. |
| Main-owned version checks and imported, underlay, inheritance, overlay, CLI, and ancestor protection | `TestLayeredDestinationChecksVersionOnceOnComposedMain`, `TestLayeredDestinationVersionClaimsUsePlacedApplicationPaths`, `TestLayeredImportedVersionClaimsUseEffectiveDestination`, and `TestLayeredMountedVersionProtectionCoversInheritanceAndUpperTiers` cover effective paths, one main check, protected-path claims/ancestors, and nonclaiming mapping ancestors. `TestLoadVersionDestinationTypesKeepOrdinaryDecoding` preserves exact configured-path conversion and ordinary nested decoding. |
| Final-shape sibling inheritance, no cross-collection lookup, one lifecycle, and failure without a usable partial result | `TestLayeredDestinationInheritanceUsesFinalSiblingScopes`, `TestLayeredDestinationInheritanceDoesNotSearchOtherCollections`, `TestLayeredDestinationLifecycleAndSensitiveInspectionUseFinalShape`, and `TestLayeredDestinationDecodeFailureReturnsNoResultOrLaterCallbacks` exercise these behaviors. Reused inheritance, lifecycle, and callback tests cover generic behavior that destination placement does not alter. |
| Effective paths, presence, provenance/history, safe rendering, sensitivity, bilateral diff, and source-relative resources | `TestLayeredDestinationsRetainOriginsHistoryAndDetachedRecords`, `TestLayeredDestinationLifecycleAndSensitiveInspectionUseFinalShape`, `TestLayeredDestinationDiffUsesBilateralSensitivity`, `TestLayeredImportedInheritedValuesRetainResourceContexts`, and `TestFacadeMountedMainAndUnderlayInspectionResourcesAndDiff` connect mounted values to inspection. The imported-inheritance test specifically proves the inherited value keeps the declaring source's passive resource context. |
| Shared depth/node limits and unchanged root/absence accounting | `TestPlaceDocumentRootAndBounds`, `TestDestinationPlacementCountsAgainstSharedNodeBudget`, `TestMultipleMountedInputsSharePlacementCharges`, `TestImportedEmptyBodiesChargeEachDestinationWrapper`, `TestSelectedOverlayAndCLIUsePlacementNodeCharges`, and `TestNoSourceAndRootPlacementAddNoWrapperCharges` cover per-document and aggregate limits without adding a new limit class. |
| Maintained consumer usage and strict peer behavior | `Example_inputDestination`, `TestCollectionBundleAssemblesMountedPeersAndResources`, and `TestCollectionPeerPromptConflictsRemainStrict` verify the simple and representative collection examples against actual values, resources, source records, and conflict behavior. |
The wider baseline-to-candidate review covered all 38 changed files (`6353598..2d8df22`): production changes are limited to the root facade fields/conversions, private input/import assembly and accounting, source record ownership, and the inheritance version-claim correction described above. The contract and tests do not impose identifier grammar, namespace uniqueness, main-only placement, source-read ordering, new budgets, nested version conversion, or expanded secret policy. The implementation wraps only acquired application bodies after processing source-root directives; placement does not change physical source identity, authored node locations, filesystem resolution, or later-tier semantics. Stage evidence above reuses existing general composition, resource, inheritance, version, lifecycle, sensitivity, and boundary tests where those behaviors are unchanged; mounted-specific cases are named separately.
Completion record: audited source candidate `2d8df22dd1cb9fde8e60853da3e2260731acf2bb`. On `go1.26.8 linux/amd64`, `./scripts/check.sh` passed, including formatting, whitespace, documentation links, tests, vet, and build. `GOTOOLCHAIN=local GOPROXY=off go test -race ./...` also passed with dependency downloads disabled. No remaining implementation limitations were found; release preparation, CI, benchmark campaigns, and downstream upgrades remain separately scoped.
Done: one complete layered load supports input destinations with coherent values,
diagnostics, inspection, limits, and source ownership across the approved surface.
## Implementation owner map
Use graph tools to locate these symbols rather than assume line numbers:
- Public input forwarding: `layered.go`, `records.go`, `conversion.go`
(source conversions), and existing facade tests.
- Private request and lifecycle: `internal/engine/layered.go`, `load_request.go`
(`loadInput`, `acquireUnderlayGroup`, `assembleLayeredInput`), `load.go`
(`executeLoadRequest`), and `load_input.go` (`assembleBaseInputTracked`).
- Directives and imports: `directives.go` (`splitImportDirectives`,
`fragmentVersionClaim`), and `imports.go` (`visitPath`).
- Shared document semantics: `compose.go`, `document_walk.go`
(`countInputNodes`), `path.go`, `parse.go`, and `value_operation.go` limits.
- Inspection: `metadata.go`, `history.go`, `explain.go`, `resource_context.go`,
`inheritance_origin.go`, `render.go`, and `diff.go`; source copies live in
engine `records.go`. Confirm current filenames through the component overview.
## Open Questions
None required for implementation. The four policy choices are approved; this
plan selects API spelling, validation timing/error category, coordinate handling,
and accounting within them. Surface a newly discovered incompatibility or scope
change with evidence rather than resolving it by silently narrowing the feature
or strengthening an unrelated contract.

View File

@@ -1,171 +0,0 @@
# Configuration Input Destinations Roadmap
Status: implemented. This roadmap records the approved behavior and rationale
for the [PromptKit feature request](promptkit-feature-request.md). The
[implementation plan](implementation.md) records the completed sequence and
audit evidence; the [configuration contract](../config.md#input-destinations)
owns current behavior.
## Targeted end state
A consumer can assign a mapping destination to a configuration input and perform
one ordinary `LoadLayered` call. The input's application content contributes
beneath that destination while retaining normal composition, precedence,
inheritance, typed loading, diagnostics, and inspection. PromptKit can assemble
collections without parsing and rewriting sources, merging values, or rebuilding
provenance itself.
For example, a fragment defining `summarize.alerts` can contribute beneath
`collections`, `weatherreporter`, `prompts`. An independent source with the same
local key can contribute beneath another collection without conflict. Collection
and prompt names remain ordinary application keys, not ConfigKit namespaces.
The public surface adds an optional `Destination Path` field on `Input`, not a
new loading entry point or an operation on completed results. Content-bearing
main inputs and underlay inputs support
the same destination model; root placement remains the default.
The following behavior defines the target:
- Omitted and empty destinations retain root placement. Destinations consist of
literal mapping keys, including dots, slashes, and numeric-looking text.
Explicit sequence-index destinations are outside the requested capability.
- A valid destination on `NoSource` contributes nothing. An actual empty
application mapping materializes its destination mappings as explicit input,
matching authored wrappers, without clearing lower-tier children.
- Existing structural reservations apply to introduced mappings. Destinations
that materialize `configkit` or a mapping-valued `extends` contrary to existing
contracts fail through the structured loading-error boundary. Keys merely
containing those words remain ordinary keys.
- Host files, native filesystem files, bytes, readers, and mapping sources all
support placement under their existing acquisition and ownership contracts.
Filesystem context, import opt-in, and precedence remain independent choices.
- Mounted contributions have the same application values and conflict behavior
as explicitly wrapped contributions, with accurate original source locations.
Disjoint mappings combine; overlapping non-mapping values within a group
conflict even when equal. A later tier cannot repair a strict-group conflict.
- Different destinations can coexist in one group, and the same destination can
occur in different tiers. Ancestor/descendant destinations follow ordinary
composition and overlay rules without namespace uniqueness restrictions.
Later tiers recursively overlay mappings and replace other values. Empty
mappings do not clear lower values; sequences remain atomic.
- A prompt's ordinary `version` override changes that field and retains omitted
lower fields. It neither identifies a merge record nor replaces a whole prompt.
- Source-root `configkit.imports` remains structural. Imported application data
inherits the input destination transitively. Import paths still resolve from
their declaring source; containment, optionality, cycles, and repeated-source
rules remain applicable. Placement does not change physical source identity.
- Sibling inheritance runs after assembly in the effective destination scope.
Peer fragments can supply a child and its sibling parent. Qualified PromptKit
references do not acquire cross-collection inheritance meaning.
- Version ownership is enforced at effective application paths. A collection's
mounted `version` is ordinary data, while underlay/import contributions to the
actual protected path, or replacements of its ancestors, remain invalid.
There is one main-owned version check and no blanket nested numeric conversion.
- Defaults, decoding, resolution, secret lookup, and validation run once on the
assembled application, not independently on fragments. Callbacks and value
diagnostics use effective paths. Failures use structured load errors and yield
no usable partial result.
- Presence, provenance, history, explanations, effective rendering, and diffs
agree with the final values. Sensitivity is evaluated at effective application
paths under the existing historical and dependency rules.
- Existing source records expose placement, including inherited import
placement. Introduced ancestor mappings retain the contributing source's
identity; any root-location fallback identifies that document, not an authored
wrapper. Actual content retains its real source coordinates.
- Original source locations and passive resource contexts survive placement,
overrides, and inheritance. `Result.SourceContext` and
`Resolution.SourceContext` still identify the declaring filesystem and base
directory for a field such as `content_file: ./summary.md`.
- Destinations and the structure they introduce participate in existing load
limits; placement cannot bypass depth or node accounting. Source ownership,
complete-on-return loading, and detached result behavior remain intact.
Import-destination syntax, independent collection specification headers, and
cross-collection inheritance are separate possible follow-ups. This work does
not add directory discovery, collection installation, remote acquisition,
namespace ownership enforcement, dependency solving, live reload, filename-based
identity, arbitrary transformations, or new merge strategies. PromptKit owns its
collection inventory, qualified IDs, and execution semantics.
## Implementation baseline (v0.7.1)
The request reviewed v0.7.1. At that baseline, the relevant boundaries were:
- [Input](../../layered.go) holds a source, import opt-in, and filesystem context,
but no destination. Root types delegate to the engine through the existing
[facade boundary](../internal/overview.md).
- [Layered loading](../config.md#layered-loading) already provides strict groups,
ordered precedence, shared acquisition budgets, and one final lifecycle.
[Underlay acquisition](../../internal/engine/load_request.go) gathers source
applications and recomposes them into their strict group.
- [Input acquisition](../../internal/engine/load_input.go) and
[import traversal](../../internal/engine/imports.go) process source-root
directives and source identity before final assembly. Imported version claims
are checked during traversal; underlay claims are checked before group
composition. These currently operate without a destination.
- [Version claim checks](../../internal/engine/directives.go) inspect a document
using the configured application path. Wrapping only an already acquired
result would leave early fragment checks and diagnostic paths incorrect.
- [Sibling inheritance](../adr/0009-sibling-inheritance.md) already runs after
source precedence and preserves source-to-destination derivation. Placement
must feed that existing mechanism rather than resolve fragments independently.
- Existing source records identify acquisition and precedence but do not expose
input placement. Existing history retains source applications, so moving only
the final tree would be insufficient for coherent inspection.
The architectural fit is an extension of input assembly, not a parser extension
or a second configuration model. The
[architecture policy](../policy/architecture.md) supplies the ownership and
consistency constraints; [deferred scope](deferred.md) continues to govern the
unrequested features above.
## Selected Design Decisions
### Main-input destinations and absent inputs
Allow the same destination model for content-bearing main inputs and underlays,
with `VersionRule.Path` remaining an effective application path and any
specification declaration still owned by main. The checker retains its existing
handling of an absent declaration and its existing lifecycle phase. `NoSource`
contributes nothing even with a valid destination. This keeps `Input` coherent
across its roles and preserves absence without per-fragment version checks.
### Public placement inspection and synthetic ancestors
Expose effective placement as `SourceInfo.Destination Path` on existing source
records, including inherited import placement.
Use original source identity for introduced ancestor mappings, documenting that
any root-location fallback identifies the contributing document rather than a
physically authored wrapper. Actual content keeps its real coordinates. This
allows consumers to connect placement to sources without a new query system.
Preserve that relationship through inherited fields, composite origins, and the
same source selected in separate tiers. Placement is per source application;
consumers can inspect it without inferring it from final paths.
### Reserved structural keys in destinations
Use existing `Path` conventions for literal keys and parsed
numeric tokens, reject explicit index segments, and preserve current structural
reservations in the effective tree. Reject destination segments that would
materialize `configkit` or a mapping-valued `extends` contrary to those contracts,
with a clear structured destination error. Ordinary keys containing those words,
dots, or slashes remain ordinary keys. Source-root directives are processed before
placement and are not rejected simply because their application body is mounted.
Mounted and authored wrappers therefore retain the same structural meaning.
Destination diagnostics identify placement as the cause of invalid introduced
structure, using existing error categories where suitable.
### Empty mappings and presence of introduced containers
Mounting an actual empty application mapping materializes its
destination mappings as explicit contributions, matching authored wrappers.
This preserves the request's equivalence principle and lets consumers inspect
an intentionally empty collection. Such mappings still do not clear lower-tier
children. An absent source contributes nothing.
This applies equally to empty imported application bodies and inputs containing
only import directives. Presence follows the contribution's meaning rather than
whether an implementation happened to allocate wrapper nodes.

View File

@@ -1,319 +0,0 @@
# PromptKit Feature Request: Configuration Input Destinations
Status: consumer feature request; not accepted or implemented.
## Requested Capability
Provide a public API through which a consumer can select a destination mapping
path for each configuration input. The input's application content contributes
beneath that path while retaining ConfigKit's normal composition, precedence,
inheritance, validation, diagnostics, and inspection behavior.
PromptKit needs this capability for its proposal 3, **Collections With Mounted
Configuration Fragments**, recorded in PromptKit's
`docs/roadmap/configuration-collections-mounted-fragments.md`. This request
describes the public API needs and observable acceptance criteria. It does not
prescribe ConfigKit's internal design or an implementation plan.
The reviewed public baseline is ConfigKit v0.7.1. The current
[layered-loading contract](../config.md#layered-loading) lets consumers choose
sources, import policy, filesystem context, and precedence groups, but does not
provide an input destination. Existing behavior remains authoritative until an
extension is adopted.
## Consumer Problem
PromptKit applications assemble independently maintained collections of prompts,
inference profiles, and backends. Collections can contain identical local names,
such as `summarize.alerts`, without identifying the same resource. PromptKit wants
an effective configuration organized by collection, while letting authors omit
repeated collection and resource-container wrappers from individual files.
A file selected from a collection's `prompts` directory would contain:
```yaml
summarize.alerts:
version: "1"
default_profile: provider/brief
messages:
- role: user
content: Summarize the weather alerts.
output:
format: text
validation_mode: none
```
Given destination `[collections, weatherreporter, prompts]`, its contribution
would appear in the final application configuration as:
```yaml
collections:
weatherreporter:
prompts:
summarize.alerts:
version: "1"
default_profile: provider/brief
messages:
- role: user
content: Summarize the weather alerts.
output:
format: text
validation_mode: none
```
Another collection can contribute `summarize.alerts` beneath
`[collections, homewatch, prompts]` without conflicting. After final handoff,
PromptKit interprets these as `weatherreporter/summarize.alerts` and
`homewatch/summarize.alerts`. The profile reference is illustrative and must be
supplied separately by the application configuration.
PromptKit will support one installed definition per prompt. Its optional flat
`version` is ordinary domain metadata, not a merge identity. This request does
not need identified-record sequences, sequence-root documents, or a custom
merge policy.
Authors could write the complete wrappers today, but that repeats assembly
details in every fragment. Consumer-side parsing and wrapping would put generic
source processing back into PromptKit and complicate source attribution.
PromptKit instead wants to select sources and destinations, then receive one
final configuration through ConfigKit's supported loading lifecycle.
## Minimum Public API
### Per-Input Destination
Allow a destination to be attached to each `Input` passed to `LoadLayered`.
One possible public spelling is an optional `Destination Path` field on `Input`.
The name and exact signature are suggestions; equivalent public API designs
are welcome.
Illustrative consumer code using the proposed field, which does not exist in
v0.7.1:
```go
promptInput := configkit.Input{
Source: configkit.File("/usr/local/share/collections/weatherreporter/prompts/alerts.yml"),
Destination: configkit.Keys("collections", "weatherreporter", "prompts"),
}
peers := configkit.Underlay{
Inputs: []configkit.Input{promptInput},
}
```
The consumer would include `peers` in its existing `LayeredOptions` and invoke
`LoadLayered` with its normal root main input and application `Definition`.
This is a partial API sketch, not an executable example or a proposed new
loading entry point. A single public layered load is sufficient for PromptKit;
it does not require a separate mounting operation on completed results.
The API must let the consumer:
- Express a destination relative to the application configuration root using
literal mapping-key segments. Dots, slashes, and numeric-looking text inside
a key are not implicit path separators or array indexes. PromptKit's namespace
grammar remains its own domain rule.
- Omit the destination to retain existing root placement. An explicitly empty
destination should have the same meaning. Mapping destinations are sufficient;
sequence-index destinations are not needed by this request.
- Assign different destinations to inputs in the same strict composition group,
and assign the same destination to inputs in separate precedence groups.
- Use the destination with existing content-bearing source kinds: host files,
native filesystem files, bytes, readers, and mapping sources, subject to their
existing acquisition and ownership contracts.
- Retain the existing import opt-in and filesystem context independently of the
destination. A configuration destination is not a filesystem root or base
directory.
PromptKit can continue to enumerate an explicitly selected directory and attach
the same destination to its returned inputs. ConfigKit does not need a new
directory scanner, namespace registry, filename convention, or PromptKit schema.
The namespace comes from the application's assembly declaration, not from an
implicit interpretation of a directory basename.
### Representative Assembly
These are application choices, not ConfigKit-specific reserved paths:
| Selected inputs | Destination key segments |
| --- | --- |
| Application main document | Root |
| `weatherreporter/collection.yml` | `collections`, `weatherreporter` |
| YAML files under `weatherreporter/prompts` | `collections`, `weatherreporter`, `prompts` |
| YAML files under `homewatch/prompts` | `collections`, `homewatch`, `prompts` |
| YAML files under `provider/profiles` | `collections`, `provider`, `profiles` |
| YAML files under `provider/backends` | `collections`, `provider`, `backends` |
Peer collection contributions belong to a single strict underlay group when the
application wants conflict detection among them. Intentional operator overrides
use later groups or main. Destination selection must not establish precedence
or make source traversal order authorize replacement.
## Required Observable Behavior
### Composition And Precedence
Mounted and explicitly wrapped contributions must have equivalent application
values and conflict behavior at their effective destinations. Actual source
locations naturally differ and must remain accurate.
Retain the [strict composition](../config.md#strict-document-composition) and
[layering](../config.md#layered-loading) rules:
- Disjoint mapping entries at the same destination combine.
- Overlapping non-mapping values within a strict group conflict, including equal
scalars, nulls, and sequences. Different destinations do not collide merely
because the source documents share a local key.
- Later precedence layers recursively override mappings and replace other
values. A strict conflict cannot be repaired by an upper layer.
- Empty mappings do not clear lower definitions; ordinary arrays remain atomic.
In particular, `messages` does not acquire sequence-merging behavior.
- Overlapping destination paths and contributions at their ancestors follow
those same rules. No namespace-level uniqueness restriction is requested.
Changing only a prompt's `version` in a later layer changes that field while
retaining omitted lower-layer fields. ConfigKit must not treat a domain version
label as a request to replace an entire definition.
### Imports And Existing Structural Directives
An input with imports enabled must be able to use its existing source-root
`configkit.imports` directive while contributing application data at a nested
destination. The directive remains structural configuration, not an application
field below that destination.
For the minimum API, imports inherit their importing input's destination,
including transitive imports. Import paths continue to resolve relative to
their declaring source's filesystem context. A mounted document must not send
its imported application fields back to the configuration root accidentally.
Existing opt-in, containment, missing-input, cycle, and repeated-source behavior
must remain applicable. A different destination is not a request to bypass the
current rejection of a repeated physical source within a strict group.
Sibling `extends` must resolve against mappings at their effective destinations.
For example, two independently supplied profile fragments mounted beneath the
same collection's `profiles` mapping can establish `extends: brief` once they
compose. Inheritance remains ConfigKit-owned; PromptKit does not perform another
relationship-resolution pass.
### Protected Specification Paths
The distinction between source-local field names and effective application
paths is essential. PromptKit's main document will declare `version: 1` at the
configuration root. A separate collection metadata file can contain:
```yaml
version: "2.4.0"
```
Mounted at `[collections, weatherreporter]`, that field is an ordinary collection
release label. It must not be rejected as an attempt to contribute the protected
root specification field. The same applies to a prompt's nested optional
version. Only the main-owned specification declaration uses the application's
configured [VersionRule](../config.md#application-schema-versions).
Conversely, placement must not permit an underlay or imported fragment to claim
or replace the actual protected specification path or an ancestor that would
replace it. The public contract must define protection in terms of effective
application paths, rather than reserving the spelling `version` in every source.
Protection must remain valid with imports, inheritance, overlays, and explicit
CLI overrides.
PromptKit needs one main-owned specification check with the existing lifecycle.
It does not need main mounted away from the root, integer-to-string conversion
for every nested `version`, or separate compatibility checks for every fragment.
### Typed Loading, Diagnostics, And Inspection
The destination must be visible consistently through the ordinary public
loading and inspection surface:
- Final typed configuration and application callbacks use effective destination
paths. Defaults, resolution, and validation retain the existing single-load
lifecycle; fragments are not independently validated as whole applications.
- Metadata and presence queries distinguish omission, explicit null, and other
explicit values at the mounted paths.
- Diagnostics identify the effective conflicting or invalid path and the real
contributing source locations. Consumers can determine which source and
placement produced a value without recreating that relationship themselves.
- Effective rendering, explanations, history, and configuration comparison agree
with the final configuration. Existing sensitivity and disclosure rules apply
to mounted fields, including application path-based secret classification.
- Unsupported destination forms and destination-related loading failures use
the normal structured error boundary. Exact new diagnostic codes, if needed,
are for ConfigKit to define.
PromptKit does not require a separate mount registry or new inspection facade.
Existing inspection APIs are sufficient if they expose accurate effective paths,
source attribution, and placement information. ConfigKit should document how
source-local locations relate to effective paths.
### Source-Relative Resources And Lifecycle
For a mounted field such as `content_file: ./summary.md`, obtaining its effective
origin and calling `Result.SourceContext` or `Resolution.SourceContext` must
still identify the declaring source's filesystem and base directory. The same
holds when that field survives an override or is inherited into another mapping.
Its configuration destination must not change the meaning of the relative file
reference.
Retain existing source ownership, load completion, result lifetime, containment,
and resource-access behavior. Destinations must participate in documented load
limits without creating a way to bypass them; this request does not prescribe
new limit values or their accounting machinery.
## Optional Follow-Ups, Not Prerequisites
**Import destinations in YAML.** A destination on an import directive could let
publishers describe assembly in configuration rather than Go. Proposal 3
recommends destinations relative to the importing document's destination, with
omission retaining that destination. This is useful, but per-input placement
through the public API is sufficient for initial PromptKit adoption. No new
directive spelling is selected by this request.
**Independent specification headers.** A collection entry document might later
declare its own supported specification version. That needs a distinct contract
for checking the header and determining its role in the composed configuration.
Mounting collection release metadata does not supply this capability. Keep it a
separate request if PromptKit decides it is necessary.
**Cross-collection inheritance.** Nested collection profiles are not immediate
siblings across collections. Current sibling inheritance remains sufficient for
the initial proposal, with authored definitions flattened where necessary.
Generic cross-path inheritance could be considered separately if consumer needs
justify revisiting the [deferred scope](deferred.md). Mounting must not silently
reinterpret `extends: provider/brief` as a cross-collection reference.
PromptKit also does not request collection installation, automatic directory
discovery, remote fetching, namespace ownership enforcement, dependency solving,
live reload, filename-derived identity, or arbitrary document transformations.
Its qualified resource IDs, optional prompt version semantics, collection
inventory, and execution APIs remain PromptKit responsibilities.
## Public Acceptance Scenarios
Evaluate the extension through supported public loading and inspection APIs:
| Scenario | Expected consumer-visible result |
| --- | --- |
| Destination omitted or empty | Existing root-placement behavior |
| Same fragment shape mounted under two distinct collection keys from independent sources | Two separate effective resources |
| Disjoint inputs at the same destination in one group | Mapping contributions combine |
| Equal or unequal overlapping scalar fields in one group | Structured composition conflict with both source locations |
| Same destination across deliberate precedence tiers | Existing recursive overlay behavior |
| Version-only prompt override | Label changes; omitted prompt body fields survive |
| Nested mounted import without a destination directive | Imported fields contribute at the inherited destination |
| Local profile inheritance across mounted peer fragments | Parent resolves at the effective sibling scope |
| Collection metadata containing `version` mounted below root | Ordinary nested field, independent of root VersionRule |
| Mounted/imported contribution actually targeting the protected version path | Rejected under version ownership rules |
| Mounted field using source-relative content, including inheritance | Original declaring resource context remains available |
| Mounted explicit null and omitted field | Distinct effective presence information |
| Mounted validation error or secret field | Effective paths, physical locations, and existing disclosure rules agree |
| File, native filesystem, byte, reader, or mapping input with equivalent content | Equivalent application values, subject to existing source contracts |
| Unsupported destination or failed load | Normal structured failure, no usable partial result |
The minimum usable outcome is a consumer that selects collection sources and
destinations, performs one ordinary layered load, and receives final typed
configuration with reliable diagnostics and inspection. It should need no
consumer-side source rewriting, generic merging, or provenance reconstruction.

View File

@@ -1,89 +0,0 @@
# Input destination review findings
Reviewed `d3d468a..945e111` against the approved
[input-destinations roadmap](input-destinations.md),
[implementation plan](implementation.md), and
[ADR 0011](../adr/0011-input-destinations.md).
The root-owned destination fields, placement before strict composition,
transitive import placement, effective-path version ownership, final lifecycle,
source records, resource contexts, retained history, and existing disclosure
mechanisms broadly match the selected architecture. The required correction
below concerns an early diagnostic path, not loading or composition semantics.
No additional unintended strengthening of contracts was identified.
## 1. Rebase known Mapping-source failure paths to the input destination (P2)
Status: complete. Known Mapping value-builder paths are now prefixed with the
normalized destination at acquisition, preserving semantic key/index segments.
Public regressions cover mounted main and underlay failures, escaped keys,
sequence indices, cyclic values, unchanged root paths, and source-constructor
errors retaining source coordinates. The mounted value cases failed before the
fix and pass afterward. Existing directive/syntax checks remain unchanged.
Focused destination/source/diagnostic/import tests, `./scripts/check.sh`, and
`GOTOOLCHAIN=local GOPROXY=off go test -race ./...` passed on
`go1.26.8 linux/amd64`.
Affected: `assembleBaseInputTracked` in
[load_input.go](../../internal/engine/load_input.go), lines 27–32 at the reviewed
commit; the Mapping failure originates in `readSource` in
[source.go](../../internal/engine/source.go), lines 206–208.
`Mapping` snapshots its input through the existing value builder. When a nested
value is unsupported, cyclic, or exceeds a value-builder limit, the retained
issue already identifies a semantic path inside that application mapping.
`readSource` turns it into a structured diagnostic. The early return from
`assembleBaseInputTracked` annotates the source record with its destination but
returns those diagnostic paths unchanged.
For example, select this input as either main or an underlay:
```go
configkit.Input{
Source: configkit.Mapping("bad mapping", map[string]any{
"item": map[string]any{"bad": func() {}},
}),
Destination: configkit.Keys("catalog", "entries"),
}
```
The load correctly fails with `source.invalid`, but `Diagnostic.Path` is
`/item/bad` rather than `/catalog/entries/item/bad`. The source record correctly
reports `/catalog/entries`, so the two inspection records use inconsistent
application coordinates. A consumer displaying or associating the failure with
the final application shape would point to the wrong configuration field.
This diverges from implementation decision 10 and Stage 6: existing paths that
genuinely identify application content must be translated to effective paths
exactly once. A Mapping value-builder issue has that information; it is not a
source-read or YAML syntax failure for which a logical child path is unavailable.
Required remediation:
- Prefix known application-relative Mapping value-builder diagnostic paths with
the normalized input destination at the acquisition boundary. Preserve key
escaping and sequence-index intent in the existing semantic Path model.
- Keep source IDs, original primary/related locations, codes, value-free
messages, source destinations, and nil-result behavior unchanged. Root
placement must retain its current paths.
- Do not blanket-prefix parse/read failures, source-constructor errors, or
structural import-directive diagnostics. Do not invent logical child paths
for failures that do not identify application content.
- Add bounded regression coverage through the public API for mounted main and
underlay Mapping failures, alongside unchanged root placement. Reuse existing
syntax/directive tests to protect their different coordinate convention.
- Run the focused destination/source/diagnostic checks and the everyday check.
Reconcile the completed plan's diagnostic evidence with this correction;
do not redefine the agreed effective-path behavior to accept the gap.
## Review validation
- `GOTOOLCHAIN=local ./scripts/check.sh` passed at `945e111` on
`go1.26.8 linux/amd64` (formatting, whitespace, tests, vet, and build).
- `GOTOOLCHAIN=local GOPROXY=off go test -race ./...` passed.
- `GOTOOLCHAIN=local GOPROXY=off go test -count=1 ./...` passed.
- An additional external-package probe in a disposable checkout outside the
repository failed for both main and underlay placement, observing `/item/bad`
instead of `/catalog/entries/item/bad` with `source.invalid`.
- No production fixes or regression tests were added to this repository during
the review. No performance measurements or new guarantees were inferred.

View File

@@ -19,6 +19,28 @@ func ExampleLoad() {
// Output: {true 3} <nil>
}
func ExampleLoad_sequenceDeclaration() {
type Item struct {
ID string `yaml:"id"`
}
type Config struct {
Items []Item `yaml:"items"`
}
result, err := configkit.Load[Config](configkit.Bytes("catalog.yml", []byte(`configkit:
sequences:
- destination: [items]
key: id
items:
- id: prompt
`)))
if err != nil {
fmt.Println(err)
return
}
fmt.Println(result.Config.Items[0].ID)
// Output: prompt
}
func ExampleNoSource() {
type Config struct {
Workers int `yaml:"workers"`
@@ -154,8 +176,15 @@ func ExampleOverride() {
})
}
result, err := configkit.Load(configkit.NoSource(), configkit.Options[Config]{
Definition: configkit.Definition[Config]{Defaults: func() Config { return Config{Workers: 4} }},
Overrides: overrides,
Definition: configkit.Definition[Config]{
Defaults: func() Config { return Config{Workers: 4} },
Resolve: func(configuration *Config, resolution *configkit.Resolution) error {
configkit.Default(resolution, configkit.Keys("workers"), &configuration.Workers, 100,
"preserve an explicitly supplied worker count")
return nil
},
},
Overrides: overrides,
})
fmt.Println(result.Config.Workers, result.Sources()[0].Label, err)
// Output: 0 --workers <nil>

View File

@@ -43,9 +43,9 @@ type CollectionProfile struct {
}
// LoadCollectionBundle demonstrates one layered collection load. Its main
// document owns the application schema version; imported collection metadata,
// prompt/profile peers, and an operator prompt-version override use ordinary
// destinations and domain fields.
// document owns the application schema version; the mounted entry declares
// relative destinations for collection metadata, prompt/profile peers, and
// their nested imports. The operator version override remains a separate tier.
func LoadCollectionBundle() (*configkit.Result[CollectionBundleConfig], error) {
files, err := fs.Sub(bundledFiles, "testdata/collection-bundle")
if err != nil {
@@ -54,7 +54,6 @@ func LoadCollectionBundle() (*configkit.Result[CollectionBundleConfig], error) {
bundle := configkit.NewFilesystem("collection bundle", files)
collectionDestination := configkit.Keys("collections", "weatherreporter")
promptDestination := collectionDestination.Key("prompts")
profileDestination := collectionDestination.Key("profiles")
return configkit.LoadLayered(
configkit.Input{Source: configkit.Bytes("application main", []byte("version: 1\n"))},
configkit.LayeredOptions[CollectionBundleConfig]{
@@ -69,13 +68,9 @@ func LoadCollectionBundle() (*configkit.Result[CollectionBundleConfig], error) {
Validate: validateCollectionBundle,
},
Underlays: []configkit.Underlay{
{Inputs: []configkit.Input{
{Source: bundle.File("collections/weather/collection.yml"), Imports: true, Destination: collectionDestination},
{Source: bundle.File("collections/weather/prompts/brief.yml"), Destination: promptDestination},
{Source: bundle.File("collections/weather/prompts/custom.yml"), Destination: promptDestination},
{Source: bundle.File("collections/weather/profiles/compact.yml"), Destination: profileDestination},
{Source: bundle.File("collections/weather/profiles/weather.yml"), Destination: profileDestination},
}},
{Inputs: []configkit.Input{{
Source: bundle.File("collections/weather/collection.yml"), Imports: true, Destination: collectionDestination,
}}},
{Inputs: []configkit.Input{{
Source: bundle.File("operators/weather-prompt-version.yml"), Destination: promptDestination,
}}},

View File

@@ -69,22 +69,43 @@ func TestCollectionBundleAssemblesMountedPeersAndResources(t *testing.T) {
t.Fatalf("ordinary collection version metadata = %#v, %v", collectionVersion, ok)
}
var metadataSource configkit.SourceInfo
var collectionEntrySource configkit.SourceInfo
var versionSource configkit.SourceInfo
var parentPromptSource configkit.SourceInfo
var promptIndexSource configkit.SourceInfo
var profileIndexSource configkit.SourceInfo
var promptVersionSource configkit.SourceInfo
for _, source := range result.Sources() {
switch source.Path {
case "collections/weather/collection.yml":
collectionEntrySource = source
case "collections/weather/metadata.yml":
metadataSource = source
case "collections/weather/version.yml":
versionSource = source
case "collections/weather/prompts/index.yml":
promptIndexSource = source
case "collections/weather/prompts/brief.yml":
parentPromptSource = source
case "collections/weather/profiles/index.yml":
profileIndexSource = source
case "operators/weather-prompt-version.yml":
promptVersionSource = source
}
}
collectionVersionLocation := collectionVersion.Origin.Locations[0]
if metadataSource.ID == "" || collectionVersionLocation.SourceID != metadataSource.ID ||
metadataSource.Destination.String() != "/collections/weatherreporter" || collectionVersionLocation.Line != 1 {
t.Fatalf("imported collection version source = %#v, %#v", metadataSource, collectionVersionLocation)
if collectionEntrySource.ID != "source-2" || collectionEntrySource.Destination.String() != "/collections/weatherreporter" ||
metadataSource.ID == "" || metadataSource.Destination.String() != "/collections/weatherreporter" ||
metadataSource.ImportedFrom == nil || metadataSource.ImportedFrom.SourceID != collectionEntrySource.ID ||
versionSource.ID == "" || collectionVersionLocation.SourceID != versionSource.ID || versionSource.Destination.String() != "/collections/weatherreporter" ||
versionSource.ImportedFrom == nil || versionSource.ImportedFrom.SourceID != metadataSource.ID || collectionVersionLocation.Line != 1 {
t.Fatalf("nested collection version provenance = entry %#v, metadata %#v, version %#v, location %#v", collectionEntrySource, metadataSource, versionSource, collectionVersionLocation)
}
if promptIndexSource.ID == "" || promptIndexSource.Destination.String() != "/collections/weatherreporter/prompts" ||
promptIndexSource.ImportedFrom == nil || promptIndexSource.ImportedFrom.SourceID != collectionEntrySource.ID ||
profileIndexSource.ID == "" || profileIndexSource.Destination.String() != "/collections/weatherreporter/profiles" ||
profileIndexSource.ImportedFrom == nil || profileIndexSource.ImportedFrom.SourceID != collectionEntrySource.ID {
t.Fatalf("nested prompt/profile placement = prompt %#v profile %#v", promptIndexSource, profileIndexSource)
}
if promptVersionSource.ID == "" || promptVersionSource.Destination.String() != "/collections/weatherreporter/prompts" || promptVersionSource.UnderlayIndex != 2 {
t.Fatalf("prompt version source = %#v", promptVersionSource)

View File

@@ -9,7 +9,7 @@ import (
configkit "gitea.maximumdirect.net/eric/ConfigKit"
)
//go:embed testdata/native-source testdata/layered-bundle testdata/collection-bundle
//go:embed testdata/native-source testdata/layered-bundle testdata/collection-bundle testdata/ordinary-imports testdata/source-version
var bundledFiles embed.FS
// BundledConfig is a small configuration loaded directly from an embedded file.
@@ -18,6 +18,30 @@ type BundledConfig struct {
Enabled bool `yaml:"enabled"`
}
type PromptBundleConfig struct {
Name string `yaml:"name"`
Version string `yaml:"version"`
Description string `yaml:"description"`
Prompts map[string]BundlePrompt `yaml:"prompts"`
}
type BundlePrompt struct {
Summary string `yaml:"summary"`
}
// LoadPromptBundle demonstrates ordinary Load with opt-in imports whose
// destinations are declared relative to the entry document.
func LoadPromptBundle() (*configkit.Result[PromptBundleConfig], error) {
files, err := fs.Sub(bundledFiles, "testdata/ordinary-imports")
if err != nil {
return nil, err
}
return configkit.Load[PromptBundleConfig](
configkit.NewFilesystem("prompt bundle", files).File("config.yml"),
configkit.Options[PromptBundleConfig]{Imports: true},
)
}
// LoadBundled demonstrates a native filesystem source without layered options.
func LoadBundled() (*configkit.Result[BundledConfig], error) {
files, err := fs.Sub(bundledFiles, "testdata/native-source")

View File

@@ -20,6 +20,34 @@ func Example_nativeFilesystem() {
// Output: embedded false
}
func Example_rootRelativeImports() {
result, err := consumers.LoadPromptBundle()
if err != nil {
fmt.Println(err)
return
}
source := result.Sources()[2]
fmt.Println(result.Config.Name, result.Config.Version, result.Config.Prompts["brief"].Summary, source.Destination.String(), err)
// Output: Root import example 1.0 A root-loaded prompt. /prompts <nil>
}
func TestPromptBundleUsesRelativeImportDestinations(t *testing.T) {
result, err := consumers.LoadPromptBundle()
if err != nil {
t.Fatal(err)
}
if result.Config.Name != "Root import example" || result.Config.Version != "1.0" || result.Config.Prompts["brief"].Summary != "A root-loaded prompt." {
t.Fatalf("root import result = %#v", result.Config)
}
sources := result.Sources()
if len(sources) != 3 || sources[0].Destination.String() != configkit.Keys().String() ||
sources[1].Path != "metadata.yml" || sources[1].Destination.String() != configkit.Keys().String() ||
sources[2].Path != "prompts/brief.yml" || sources[2].Destination.String() != "/prompts" ||
sources[2].ImportedFrom == nil || sources[2].ImportedFrom.SourceID != sources[0].ID {
t.Fatalf("root import sources = %#v", sources)
}
}
func Example_layeredCatalog() {
result, err := consumers.LoadCatalog(fixture("layered-main", "config.yml"))
if err != nil {
@@ -32,6 +60,58 @@ func Example_layeredCatalog() {
// Output: production false 0 bundle example Welcome from the bundle. <nil>
}
func Example_sourceVersionAdoption() {
result, err := consumers.LoadVersionedService(configkit.SourceVersionModeIfPresent)
if err != nil {
fmt.Println(err)
return
}
checks, redacted := 0, true
for _, source := range result.Sources() {
if check := source.VersionCheck; check != nil {
checks++
redacted = redacted && check.Redacted && check.Version.Text == ""
}
}
required, requiredErr := consumers.LoadVersionedService(configkit.SourceVersionModeRequired)
fmt.Println(result.Config.Service.Version, result.Config.Service.Metadata.Release,
checks, redacted, required != nil && requiredErr == nil)
// Output: service-v2 application-2026.10 2 true true
}
func TestVersionedServiceModesAndMountedProtection(t *testing.T) {
for _, mode := range []configkit.SourceVersionMode{
configkit.SourceVersionModeIfPresent,
configkit.SourceVersionModeRequired,
} {
result, err := consumers.LoadVersionedService(mode)
if err != nil || result == nil || result.Config.Service.Version != "service-v2" ||
result.Config.Service.Name != "example service" || result.Config.Service.Endpoint != "https://service.example.invalid" ||
result.Config.Service.Metadata.Release != "application-2026.10" {
t.Fatalf("versioned service mode %d = %#v, %v", mode, result, err)
}
sources := result.Sources()
if len(sources) != 2 {
t.Fatalf("versioned service sources = %#v", sources)
}
for _, source := range sources {
check := source.VersionCheck
if check == nil || check.Path.String() != "/version" || !check.Version.Present ||
!check.Redacted || check.Version.Text != "" {
t.Fatalf("safe source version evidence = %#v", sources)
}
}
}
_, err := consumers.LoadVersionedService(configkit.SourceVersionModeIfPresent,
configkit.Override{Path: configkit.Keys("service", "version"), Value: "cli-v3", Flag: "--service-version"})
var loadError *configkit.LoadError
if !errors.As(err, &loadError) || len(loadError.Diagnostics()) != 1 ||
loadError.Diagnostics()[0].Code != configkit.CodeOverrideVersion ||
loadError.Diagnostics()[0].Path.String() != "/service/version" {
t.Fatalf("mounted main version override error = %v", err)
}
}
func TestCatalogRetainsPresenceAndSourceContext(t *testing.T) {
result, err := consumers.LoadCatalog(fixture("layered-main", "config.yml"))
if err != nil {

View File

@@ -0,0 +1,67 @@
package consumers
import (
"strings"
configkit "gitea.maximumdirect.net/eric/ConfigKit"
)
// PromptCatalogConfig is an application-owned prompt collection shape.
type PromptCatalogConfig struct {
Prompts []PromptRecord `yaml:"prompts"`
}
// PromptRecord keeps its identity and message meaning in the consumer.
type PromptRecord struct {
ID string `yaml:"id"`
Name string `yaml:"name"`
Messages []string `yaml:"messages"`
Resource string `yaml:"resource"`
}
// LoadPromptCatalog discovers explicitly registered prompt records in the main
// tier and replaces the lower-priority default collection as a whole.
func LoadPromptCatalog(mainPath string) (*configkit.Result[PromptCatalogConfig], error) {
return configkit.LoadLayered(configkit.Input{
Source: configkit.File(mainPath),
Imports: true,
}, configkit.LayeredOptions[PromptCatalogConfig]{
Underlays: []configkit.Underlay{{Inputs: []configkit.Input{{
Source: configkit.Bytes("default prompts", []byte("prompts:\n - id: default\n name: Default prompt\n messages: [Default message]\n")),
}}}},
ImportDefaults: configkit.ImportDefaults{
Pattern: []string{"curated*.yml", "generated-*.yml"},
},
Definition: promptCatalogDefinition(),
})
}
// LoadRequiredPromptCatalog keeps the common one-file import shape small.
func LoadRequiredPromptCatalog(mainPath string) (*configkit.Result[PromptCatalogConfig], error) {
return configkit.Load(configkit.File(mainPath), configkit.Options[PromptCatalogConfig]{
Imports: true, Definition: promptCatalogDefinition(),
})
}
func promptCatalogDefinition() configkit.Definition[PromptCatalogConfig] {
return configkit.Definition[PromptCatalogConfig]{
SequenceIdentities: []configkit.SequenceIdentity{
configkit.SequenceIdentityAt(configkit.Keys("prompts"), "id"),
},
Validate: validatePromptCatalog,
}
}
func validatePromptCatalog(configuration *PromptCatalogConfig, validation *configkit.Validation) {
for index, prompt := range configuration.Prompts {
if strings.TrimSpace(prompt.Name) == "" {
validation.Error(configkit.Keys("prompts").Index(index).Key("name"), "must not be empty")
}
if len(prompt.Messages) == 0 {
validation.Error(configkit.Keys("prompts").Index(index).Key("messages"), "must contain at least one message")
}
}
if len(configuration.Prompts) == 0 {
validation.Error(configkit.Keys("prompts"), "must contain at least one prompt")
}
}

View File

@@ -0,0 +1,135 @@
package consumers_test
import (
"errors"
"fmt"
"io/fs"
pathpkg "path"
"path/filepath"
"testing"
configkit "gitea.maximumdirect.net/eric/ConfigKit"
"gitea.maximumdirect.net/eric/ConfigKit/examples/consumers"
)
func Example_identifiedPromptCatalog() {
result, err := consumers.LoadPromptCatalog(fixture("prompt-catalog", "config.yml"))
if err != nil {
fmt.Println(err)
return
}
ids := make([]string, 0, len(result.Config.Prompts))
for _, prompt := range result.Config.Prompts {
ids = append(ids, prompt.ID)
}
emptySearches := 0
for _, source := range result.Sources() {
for _, selection := range source.ImportSelections {
if selection.Selector == configkit.ImportSelectorDirectory && selection.Outcome == configkit.ImportSelectionNone {
emptySearches++
}
}
}
fmt.Println(ids, emptySearches, err)
// Output: [weather curated welcome main] 1 <nil>
}
func Example_requiredPromptCatalog() {
result, err := consumers.LoadRequiredPromptCatalog(fixture("prompt-catalog", "simple.yml"))
if err != nil {
fmt.Println(err)
return
}
fmt.Println(result.Config.Prompts[0].ID, err)
// Output: required <nil>
}
func TestPromptCatalogImportsRegisteredItemsAndReplacesDefaults(t *testing.T) {
result, err := consumers.LoadPromptCatalog(fixture("prompt-catalog", "config.yml"))
if err != nil {
var loadError *configkit.LoadError
if errors.As(err, &loadError) {
t.Fatalf("load prompt catalog: %v (%#v)", err, loadError.Diagnostics())
}
t.Fatal(err)
}
if len(result.Config.Prompts) != 4 {
t.Fatalf("prompt records = %#v", result.Config.Prompts)
}
ids := []string{"weather", "curated", "welcome", "main"}
for index, id := range ids {
if result.Config.Prompts[index].ID != id {
t.Fatalf("prompt %d ID = %q, want %q", index, result.Config.Prompts[index].ID, id)
}
}
for _, prompt := range result.Config.Prompts {
if prompt.ID == "default" {
t.Fatalf("lower-priority default survived main sequence replacement: %#v", result.Config.Prompts)
}
if prompt.ID == "ignored" {
t.Fatalf("excluded generated prompt was selected: %#v", result.Config.Prompts)
}
}
var itemImports, helperImports int
for _, source := range result.Sources() {
switch filepath.Base(source.Path) {
case "curated.yml", "weather-feature.yml", "generated-welcome.yml":
if source.PlacementMode != configkit.PlacementModeSequenceItem || source.Destination.String() != "/prompts" {
t.Fatalf("item source placement = %#v", source)
}
itemImports++
case "curated-id.yml":
if source.PlacementMode != configkit.PlacementModeMapping || source.ImportedFrom == nil {
t.Fatalf("helper source = %#v", source)
}
helperImports++
}
}
if itemImports != 3 || helperImports != 1 {
t.Fatalf("item imports = %d, helper imports = %d, sources = %#v", itemImports, helperImports, result.Sources())
}
if result.Config.Prompts[1].ID != "curated" {
t.Fatalf("helper did not provide prompt ID: %#v", result.Config.Prompts[1])
}
}
func TestPromptCatalogMountsResourceFromScheduledPromptOrigin(t *testing.T) {
result, err := consumers.LoadPromptCatalog(fixture("prompt-catalog", "config.yml"))
if err != nil {
t.Fatal(err)
}
if result.Config.Prompts[2].ID != "welcome" || result.Config.Prompts[2].Resource != "welcome.txt" {
t.Fatalf("scheduled resource prompt = %#v", result.Config.Prompts)
}
resourcePath := configkit.Keys("prompts").Index(2).Key("resource")
info, ok := result.Metadata().Lookup(resourcePath)
if !ok || len(info.Origin.Locations) != 1 {
t.Fatalf("resource origin = %#v, %v", info, ok)
}
context, ok := result.SourceContext(info.Origin.Locations[0].SourceID)
if !ok || context.FS == nil || filepath.Base(context.BaseDir) != "prompts" {
t.Fatalf("resource source context = %#v, %v", context, ok)
}
contents, err := fs.ReadFile(context.FS, pathpkg.Join(context.BaseDir, result.Config.Prompts[2].Resource))
if err != nil || string(contents) != "Welcome resource text.\n" {
t.Fatalf("mounted resource = %q, %v", contents, err)
}
}
func TestRequiredPromptCatalogUsesOneRequiredFile(t *testing.T) {
result, err := consumers.LoadRequiredPromptCatalog(fixture("prompt-catalog", "simple.yml"))
if err != nil || len(result.Config.Prompts) != 1 || result.Config.Prompts[0].ID != "required" {
t.Fatalf("simple required prompt = %#v, %v", result, err)
}
}
func TestPromptCatalogLeavesDomainValidationWithConsumer(t *testing.T) {
_, err := consumers.LoadPromptCatalog(fixture("prompt-catalog", "invalid.yml"))
var loadError *configkit.LoadError
if !errors.As(err, &loadError) || len(loadError.Diagnostics()) != 1 ||
loadError.Diagnostics()[0].Code != configkit.CodeValidateError ||
loadError.Diagnostics()[0].Path.String() != "/prompts/0/messages" {
t.Fatalf("consumer domain validation error = %v", err)
}
}

View File

@@ -0,0 +1,134 @@
package consumers
import (
"errors"
"fmt"
"io/fs"
"os"
"path"
"path/filepath"
"strings"
configkit "gitea.maximumdirect.net/eric/ConfigKit"
)
// SequenceCatalogConfig is a source-backed prompt catalog with an application
// supplied run label and a value derived from that label during resolution.
type SequenceCatalogConfig struct {
RunLabel string `yaml:"run_label"`
ResolvedLabel string `yaml:"resolved_label"`
Prompts []SequenceCatalogEntry `yaml:"prompts"`
}
// SequenceCatalogEntry keeps prompt meaning, resources, and credentials in the
// consuming application while ConfigKit handles collection assembly.
type SequenceCatalogEntry struct {
ID string `yaml:"id"`
Name string `yaml:"name"`
Description string `yaml:"description"`
Messages []string `yaml:"messages"`
Resource string `yaml:"resource"`
Credential configkit.Secret `yaml:"credential"`
}
// LoadSequenceCatalog assembles imported main fragments over a file-backed
// underlay, applies one selected collection overlay, then resolves and validates
// the resulting application configuration.
func LoadSequenceCatalog(mainPath, overlayName, runLabel string) (*configkit.Result[SequenceCatalogConfig], error) {
root := filepath.Dir(mainPath)
filesystem := configkit.NewFilesystem("sequence catalog", os.DirFS(root))
filesystemContext := &configkit.FilesystemContext{BaseDir: ".", Root: ".", FS: &filesystem}
definition := configkit.Definition[SequenceCatalogConfig]{
SequenceIdentities: []configkit.SequenceIdentity{
configkit.SequenceIdentityAt(configkit.Keys("prompts"), "id"),
},
Resolve: func(configuration *SequenceCatalogConfig, resolution *configkit.Resolution) error {
configuration.ResolvedLabel = "for:" + configuration.RunLabel
resolution.Record(configkit.Keys("resolved_label"), configkit.ChangeNormalization,
"derive the resolved label from the selected run label", configkit.Keys("run_label"))
return nil
},
Validate: validateSequenceCatalog,
}
return configkit.LoadLayered(configkit.Input{
Source: filesystem.File(filepath.Base(mainPath)),
Imports: true,
}, configkit.LayeredOptions[SequenceCatalogConfig]{
Underlays: []configkit.Underlay{{Inputs: []configkit.Input{{
Source: filesystem.File("underlay.yml"),
}}}},
Overlay: overlayName,
OverlayFilesystem: filesystemContext,
Overrides: []configkit.Override{{
Path: configkit.Keys("run_label"), Value: runLabel, Flag: "--run-label",
}},
Definition: definition,
})
}
// ReadSequenceCatalogResource follows the final prompt field's source context,
// including when record inheritance retained a resource from an underlay.
func ReadSequenceCatalogResource(result *configkit.Result[SequenceCatalogConfig], promptID string) (string, error) {
if result == nil {
return "", errors.New("sequence catalog result is nil")
}
for index, prompt := range result.Config.Prompts {
if prompt.ID != promptID {
continue
}
resourcePath := configkit.Keys("prompts").Index(index).Key("resource")
info, found := result.Metadata().Lookup(resourcePath)
if !found || len(info.Origin.Locations) != 1 {
return "", errors.New("prompt resource has no single declaring source")
}
context, found := result.SourceContext(info.Origin.Locations[0].SourceID)
if !found {
return "", errors.New("prompt resource source context is unavailable")
}
data, err := fs.ReadFile(context.FS, path.Join(context.BaseDir, prompt.Resource))
if err != nil {
return "", fmt.Errorf("read prompt resource: %w", err)
}
return string(data), nil
}
return "", fmt.Errorf("prompt %q is unavailable", promptID)
}
func validateSequenceCatalog(configuration *SequenceCatalogConfig, validation *configkit.Validation) {
for index, prompt := range configuration.Prompts {
if strings.TrimSpace(prompt.Name) == "" {
validation.Error(configkit.Keys("prompts").Index(index).Key("name"), "must not be empty")
}
if len(prompt.Messages) == 0 {
validation.Error(configkit.Keys("prompts").Index(index).Key("messages"), "must contain at least one message")
}
}
if len(configuration.Prompts) == 0 {
validation.Error(configkit.Keys("prompts"), "must contain at least one prompt")
}
}
// NamespacedMapCatalogConfig demonstrates typed application maps whose
// independent prompt sequences use root and dynamic namespace registrations.
type NamespacedMapCatalogConfig struct {
Prompts []map[string]any `yaml:"prompts"`
Collections map[string]map[string]any `yaml:"collections"`
}
// LoadNamespacedMapCatalog applies the same scalar identity constraint to one
// root collection and each namespace's independently scoped collection.
func LoadNamespacedMapCatalog(source configkit.Source) (*configkit.Result[NamespacedMapCatalogConfig], error) {
selector := configkit.SequenceSelector{
configkit.SequenceLiteralKey("collections"),
configkit.SequenceAnyMappingKey(),
configkit.SequenceLiteralKey("prompts"),
}
return configkit.Load(source, configkit.Options[NamespacedMapCatalogConfig]{
Definition: configkit.Definition[NamespacedMapCatalogConfig]{
SequenceIdentities: []configkit.SequenceIdentity{
configkit.SequenceIdentityAt(configkit.Keys("prompts"), "id"),
configkit.SequenceIdentityMatching(selector, "id"),
},
},
})
}

View File

@@ -0,0 +1,239 @@
package consumers_test
import (
"bytes"
"errors"
"fmt"
"os"
"strings"
"testing"
configkit "gitea.maximumdirect.net/eric/ConfigKit"
"gitea.maximumdirect.net/eric/ConfigKit/examples/consumers"
)
func Example_sequenceCatalog() {
const oldSecret = "CONFIGKIT_SEQUENCE_CATALOG_OLD_SECRET"
const newSecret = "CONFIGKIT_SEQUENCE_CATALOG_NEW_SECRET"
restoreOld, restoreNew := preserveEnvironment(oldSecret), preserveEnvironment(newSecret)
defer restoreOld()
defer restoreNew()
_ = os.Setenv(oldSecret, "disposable-old-example-credential")
_ = os.Setenv(newSecret, "disposable-new-example-credential")
result, err := consumers.LoadSequenceCatalog(fixture("sequence-catalog", "config.yml"), "upsert", "preview")
if err != nil {
fmt.Println(err)
return
}
ids := make([]string, 0, len(result.Config.Prompts))
for _, prompt := range result.Config.Prompts {
ids = append(ids, prompt.ID)
}
shared := configkit.Keys("prompts").Index(1).Key("name")
info, _ := result.Metadata().Lookup(shared)
resource, resourceErr := consumers.ReadSequenceCatalogResource(result, "concise")
fmt.Println(ids, result.Config.ResolvedLabel, info.Explicit, len(result.Metadata().History(shared)), resource, resourceErr == nil, err)
// Output: [foundation shared welcome concise extra] for:preview true 2 Foundation resource text.
// true <nil>
}
func TestSequenceCatalogSelectedOverlayOperations(t *testing.T) {
const oldSecret = "CONFIGKIT_SEQUENCE_CATALOG_OLD_SECRET"
const newSecret = "CONFIGKIT_SEQUENCE_CATALOG_NEW_SECRET"
t.Setenv(oldSecret, "sequence-catalog-old-canary")
t.Setenv(newSecret, "sequence-catalog-new-canary")
tests := []struct {
name string
wantIDs []string
shared *consumers.SequenceCatalogEntry
}{
{name: "append", wantIDs: []string{"foundation", "shared", "welcome", "concise", "extra"}},
{name: "upsert", wantIDs: []string{"foundation", "shared", "welcome", "concise", "extra"}, shared: &consumers.SequenceCatalogEntry{ID: "shared", Name: "Shared replacement", Messages: []string{"Replacement message"}, Credential: configkit.SecretEnv(newSecret)}},
{name: "replace", wantIDs: []string{"replacement", "last"}},
}
for _, test := range tests {
t.Run(test.name, func(t *testing.T) {
result, err := consumers.LoadSequenceCatalog(fixture("sequence-catalog", "config.yml"), test.name, "test")
if err != nil {
var loadError *configkit.LoadError
if errors.As(err, &loadError) {
t.Fatalf("load selected overlay: %v (%#v)", err, loadError.Diagnostics())
}
t.Fatal(err)
}
gotIDs := make([]string, 0, len(result.Config.Prompts))
for _, prompt := range result.Config.Prompts {
gotIDs = append(gotIDs, prompt.ID)
}
if strings.Join(gotIDs, ",") != strings.Join(test.wantIDs, ",") {
t.Fatalf("prompt order = %v, want %v", gotIDs, test.wantIDs)
}
if test.shared == nil {
return
}
shared := result.Config.Prompts[1]
if shared.ID != test.shared.ID || shared.Name != test.shared.Name || len(shared.Messages) != 1 ||
shared.Messages[0] != test.shared.Messages[0] || shared.Description != "" || shared.Resource != "" || shared.Credential.EnvName() != newSecret {
t.Fatalf("upsert did not replace the complete matched record: %#v", shared)
}
})
}
}
func TestSequenceCatalogInspectionTracksResourcesAndSecretHistory(t *testing.T) {
const oldSecret = "CONFIGKIT_SEQUENCE_CATALOG_OLD_SECRET"
const newSecret = "CONFIGKIT_SEQUENCE_CATALOG_NEW_SECRET"
const oldCanary = "sequence-catalog-old-canary"
const newCanary = "sequence-catalog-new-canary"
t.Setenv(oldSecret, oldCanary)
t.Setenv(newSecret, newCanary)
result, err := consumers.LoadSequenceCatalog(fixture("sequence-catalog", "config.yml"), "upsert", "history")
if err != nil {
var loadError *configkit.LoadError
if errors.As(err, &loadError) {
t.Fatalf("load sequence catalog: %v (%#v)", err, loadError.Diagnostics())
}
t.Fatal(err)
}
resourcePath := configkit.Keys("prompts").Index(3).Key("resource")
resourceInfo, found := result.Metadata().Lookup(resourcePath)
if !found || len(resourceInfo.Origin.Locations) != 1 || len(resourceInfo.Origin.Inheritance) != 1 {
t.Fatalf("inherited resource inspection = %#v, %v", resourceInfo, found)
}
resource, err := consumers.ReadSequenceCatalogResource(result, "concise")
if err != nil || resource != "Foundation resource text.\n" {
t.Fatalf("resource from inherited source context = %q, %v", resource, err)
}
if len(result.Metadata().History(configkit.Keys("resolved_label"))) == 0 {
t.Fatal("recorded CLI-driven resolution was absent from final inspection")
}
credentialPath := configkit.Keys("prompts").Index(1).Key("credential")
credentialHistory := result.Metadata().History(credentialPath)
if len(credentialHistory) == 0 {
t.Fatal("upsert did not retain the replaced secret reference in history")
}
var explanation bytes.Buffer
if err := result.WriteExplanation(&explanation, credentialPath); err != nil {
t.Fatal(err)
}
if strings.Contains(explanation.String(), oldCanary) || strings.Contains(explanation.String(), newCanary) {
t.Fatalf("secret explanation exposed a credential value: %s", explanation.String())
}
}
func TestNamespacedTypedMapIdentityScopesAreIndependent(t *testing.T) {
source := configkit.Bytes("namespaced maps", []byte(`
prompts:
- id: shared
text: root prompt
collections:
team:
prompts:
- id: shared
text: team prompt
operations:
prompts:
- id: shared
text: operations prompt
`))
result, err := consumers.LoadNamespacedMapCatalog(source)
if err != nil {
t.Fatal(err)
}
if result.Config.Prompts[0]["text"] != "root prompt" ||
result.Config.Collections["team"]["prompts"].([]any)[0].(map[string]any)["text"] != "team prompt" ||
result.Config.Collections["operations"]["prompts"].([]any)[0].(map[string]any)["text"] != "operations prompt" {
t.Fatalf("typed map collections = %#v", result.Config)
}
}
func TestNamespacedTypedMapIdentityFindsCollectionsIntroducedByInheritance(t *testing.T) {
result, err := consumers.LoadNamespacedMapCatalog(configkit.Bytes("inherited namespace", []byte(`
collections:
source:
prompts:
- id: shared
text: inherited prompt
copied:
extends: source
`)))
if err != nil {
t.Fatal(err)
}
copied := result.Config.Collections["copied"]["prompts"].([]any)
if len(copied) != 1 || copied[0].(map[string]any)["text"] != "inherited prompt" {
t.Fatalf("inherited typed-map collection = %#v", result.Config.Collections["copied"])
}
}
func Example_yamlDeclaredIdentityOnly() {
result, err := configkit.Load(configkit.Bytes("YAML identity only", []byte(`
configkit:
sequences:
- destination: [prompts]
key: id
prompts:
- id: initial
`)), configkit.Options[map[string]any]{
Overrides: []configkit.Override{{
Path: configkit.Keys("prompts"),
Value: []any{
map[string]any{"id": "same"},
map[string]any{"id": "same"},
},
Flag: "--prompts",
}},
})
fmt.Println(len(result.Config["prompts"].([]any)), err)
// Output: 2 <nil>
}
func TestYAMLDeclaredIdentityDoesNotRegisterFinalTypedConstraint(t *testing.T) {
result, err := configkit.Load(configkit.Bytes("YAML identity only", []byte(`
configkit:
sequences:
- destination: [prompts]
key: id
prompts:
- id: initial
`)), configkit.Options[map[string]any]{
Overrides: []configkit.Override{{
Path: configkit.Keys("prompts"),
Value: []any{
map[string]any{"id": "same"},
map[string]any{"id": "same"},
},
Flag: "--prompts",
}},
})
if err != nil {
t.Fatalf("YAML-only identity incorrectly became an application constraint: %v", err)
}
prompts := result.Config["prompts"].([]any)
if len(prompts) != 2 || prompts[0].(map[string]any)["id"] != prompts[1].(map[string]any)["id"] {
t.Fatalf("CLI result = %#v", result.Config)
}
}
func TestNamespacedTypedMapRejectsDuplicatesWithinOneCollection(t *testing.T) {
_, err := consumers.LoadNamespacedMapCatalog(configkit.Bytes("duplicate namespace", []byte(`
collections:
team:
prompts:
- id: duplicate
- id: duplicate
`)))
var loadError *configkit.LoadError
if !errors.As(err, &loadError) || len(loadError.Diagnostics()) != 1 ||
loadError.Diagnostics()[0].Code != configkit.CodeComposeConflict ||
loadError.Diagnostics()[0].Path.String() != "/collections/team/prompts" {
diagnostics := []configkit.Diagnostic(nil)
if loadError != nil {
diagnostics = loadError.Diagnostics()
}
t.Fatalf("duplicate namespaced identity error = %v (%#v)", err, diagnostics)
}
}

View File

@@ -0,0 +1,64 @@
package consumers
import (
"errors"
"io/fs"
configkit "gitea.maximumdirect.net/eric/ConfigKit"
)
// VersionedServiceConfig demonstrates a mounted main input whose source-local
// schema version is retained at the effective service path.
type VersionedServiceConfig struct {
Service struct {
Version string `yaml:"version"`
Name string `yaml:"name"`
Endpoint string `yaml:"endpoint"`
Metadata struct {
Release string `yaml:"release"`
} `yaml:"metadata"`
} `yaml:"service"`
}
// LoadVersionedService checks the main and underlay declarations with one
// application policy. The local rule path is "version" for each source; the
// main input's destination places its protected value at /service/version.
// Optional CLI overrides are passed through to ConfigKit for normal protection.
func LoadVersionedService(mode configkit.SourceVersionMode, overrides ...configkit.Override) (*configkit.Result[VersionedServiceConfig], error) {
files, err := fs.Sub(bundledFiles, "testdata/source-version")
if err != nil {
return nil, err
}
main, err := fs.ReadFile(files, "main.yml")
if err != nil {
return nil, err
}
underlay, err := fs.ReadFile(files, "underlay.yml")
if err != nil {
return nil, err
}
definition := configkit.Definition[VersionedServiceConfig]{
Version: &configkit.VersionRule{
Path: configkit.Keys("version"),
Check: func(version configkit.Version, _ *configkit.Validation) error {
if !version.Present || version.Null || version.Text == "" {
return errors.New("a nonempty source version is required")
}
return nil
},
},
Secret: func(path configkit.Path) bool {
return path.String() == "/service/version"
},
}
return configkit.LoadLayered(configkit.Input{
Source: configkit.Bytes("service main", main), Destination: configkit.Keys("service"),
}, configkit.LayeredOptions[VersionedServiceConfig]{
Definition: definition,
SourceVersionMode: mode,
Overrides: overrides,
Underlays: []configkit.Underlay{{Inputs: []configkit.Input{{
Source: configkit.Bytes("service defaults", underlay), Destination: configkit.Keys("service"),
}}}},
})
}

View File

@@ -1,4 +1,9 @@
configkit:
imports:
- path: metadata.yml
destination: []
- path: prompts/index.yml
destination: [prompts]
- path: profiles/index.yml
destination: [profiles]
name: Weather Reporter

View File

@@ -1,2 +1,4 @@
version: "2.4.0"
configkit:
imports:
- path: version.yml
description: Imported collection metadata.

View File

@@ -0,0 +1,4 @@
configkit:
imports:
- path: compact.yml
- path: weather.yml

View File

@@ -0,0 +1,4 @@
configkit:
imports:
- path: brief.yml
- path: custom.yml

View File

@@ -0,0 +1 @@
version: "2.4.0"

View File

@@ -0,0 +1,6 @@
configkit:
imports:
- path: metadata.yml
- path: prompts/brief.yml
destination: [prompts]
name: Root import example

View File

@@ -0,0 +1,2 @@
version: "1.0"
description: Metadata imported into the root document.

View File

@@ -0,0 +1,2 @@
brief:
summary: A root-loaded prompt.

View File

@@ -0,0 +1,19 @@
configkit:
sequences:
- destination: [prompts]
key: id
mode: replace
imports:
- dir: prompts
exclude: [generated-ignored.yml]
destination: [prompts]
placement: sequence-item
- dir: featured
pattern: [weather-*.yml]
destination: [prompts]
placement: sequence-item
- dir: optional
prompts:
- id: main
name: Main authored prompt
messages: [Use the main prompt.]

View File

@@ -0,0 +1,4 @@
id: weather
name: Weather forecast
messages:
- Describe today's forecast.

View File

@@ -0,0 +1,9 @@
configkit:
sequences:
- destination: [prompts]
key: id
mode: replace
prompts:
- id: invalid
name: Invalid prompt
messages: []

View File

@@ -0,0 +1 @@
This file does not match the application import defaults.

View File

@@ -0,0 +1,6 @@
configkit:
imports:
- path: helpers/curated-id.yml
name: Curated summary
messages:
- Summarize the supplied content.

View File

@@ -0,0 +1,3 @@
id: ignored
name: Excluded generated prompt
messages: [This record is excluded.]

View File

@@ -0,0 +1,5 @@
id: welcome
name: Welcome
messages:
- Welcome the user.
resource: welcome.txt

View File

@@ -0,0 +1 @@
id: curated

View File

@@ -0,0 +1,3 @@
id: required
name: Required prompt
messages: [Use the required prompt.]

View File

@@ -0,0 +1 @@
Welcome resource text.

View File

@@ -0,0 +1,7 @@
configkit:
imports:
- path: prompts/required.yml
required: true
destination: [prompts]
placement: sequence-item
prompts: []

View File

@@ -0,0 +1,7 @@
run_label: source-default
configkit:
imports:
- dir: fragments
pattern: '*.yml'
destination: [prompts]
placement: sequence-item

View File

@@ -0,0 +1 @@
Foundation resource text.

View File

@@ -0,0 +1,4 @@
id: welcome
name: Welcome
messages: [Welcome message]
credential: CONFIGKIT_SEQUENCE_CATALOG_OLD_SECRET

View File

@@ -0,0 +1,3 @@
id: concise
extends: {id: foundation}
name: Concise

View File

@@ -0,0 +1,10 @@
configkit:
sequences:
- destination: [prompts]
key: id
mode: append
prompts:
- id: extra
name: Extra
messages: [Extra message]
credential: CONFIGKIT_SEQUENCE_CATALOG_OLD_SECRET

View File

@@ -0,0 +1,14 @@
configkit:
sequences:
- destination: [prompts]
key: id
mode: replace
prompts:
- id: replacement
name: Replacement
messages: [Replacement message]
credential: CONFIGKIT_SEQUENCE_CATALOG_OLD_SECRET
- id: last
name: Last
messages: [Last message]
credential: CONFIGKIT_SEQUENCE_CATALOG_OLD_SECRET

View File

@@ -0,0 +1,14 @@
configkit:
sequences:
- destination: [prompts]
key: id
mode: upsert
prompts:
- id: shared
name: Shared replacement
messages: [Replacement message]
credential: CONFIGKIT_SEQUENCE_CATALOG_NEW_SECRET
- id: extra
name: Extra
messages: [Extra message]
credential: CONFIGKIT_SEQUENCE_CATALOG_OLD_SECRET

View File

@@ -0,0 +1,18 @@
configkit:
sequences:
- destination: [prompts]
key: id
mode: append
prompts:
- id: foundation
name: Foundation
description: Shared foundation instruction
messages: [Foundation message]
resource: foundation.txt
credential: CONFIGKIT_SEQUENCE_CATALOG_OLD_SECRET
- id: shared
name: Shared draft
description: This field must not survive a whole-record replacement
messages: [Draft message]
resource: shared.txt
credential: CONFIGKIT_SEQUENCE_CATALOG_OLD_SECRET

View File

@@ -0,0 +1,4 @@
version: service-v2
name: example service
metadata:
release: application-2026.10

View File

@@ -0,0 +1,2 @@
version: catalog-v1
endpoint: https://service.example.invalid

View File

@@ -155,6 +155,139 @@ func TestFacadeImportedSourcesRetainInputDestination(t *testing.T) {
}
}
func TestFacadeRelativeImportDestinationsForRootAndMountedLoads(t *testing.T) {
directory := t.TempDir()
write := func(relative, contents string) string {
t.Helper()
filename := filepath.Join(directory, filepath.FromSlash(relative))
if err := os.MkdirAll(filepath.Dir(filename), 0o755); err != nil {
t.Fatal(err)
}
if err := os.WriteFile(filename, []byte(contents), 0o600); err != nil {
t.Fatal(err)
}
return filename
}
mainPath := write("main.yml", `configkit:
imports:
- path: metadata.yml
destination: [metadata]
- glob: prompts/*.yml
destination: [prompts]
- path: entries/main.yml
destination: [profiles]
- path: sibling.yml
destination: [sibling]
root: main
`)
write("metadata.yml", "name: imported\n")
write("prompts/a.yml", "a: {name: alpha}\n")
write("prompts/b.yml", "b: {name: beta}\n")
write("entries/main.yml", `configkit:
imports:
- path: nested/details.yml
destination: [details]
name: profile
`)
write("entries/nested/details.yml", "summary: nested\n")
write("sibling.yml", "name: separate\n")
root, err := configkit.Load(
configkit.File(mainPath), configkit.Options[map[string]any]{Imports: true},
)
if err != nil {
if loadError, ok := err.(*configkit.LoadError); ok {
t.Fatalf("ordinary root Load: %v, diagnostics %#v", err, loadError.Diagnostics())
}
t.Fatalf("ordinary root Load: %v", err)
}
mountedDestination := configkit.Keys("collections", "weatherreporter")
mounted, err := configkit.LoadLayered[map[string]any](configkit.Input{
Source: configkit.File(mainPath), Imports: true, Destination: mountedDestination,
})
if err != nil {
t.Fatalf("mounted layered Load: %v", err)
}
for _, test := range []struct {
name string
result *configkit.Result[map[string]any]
prefix []string
}{
{name: "ordinary root", result: root},
{name: "mounted entry", result: mounted, prefix: []string{"collections", "weatherreporter"}},
} {
t.Run(test.name, func(t *testing.T) {
at := func(keys ...string) []string {
return append(append([]string(nil), test.prefix...), keys...)
}
if got := facadeDestinationValue(t, test.result.Config, at("root")...); got != "main" {
t.Fatalf("root value = %#v", got)
}
if got := facadeDestinationValue(t, test.result.Config, at("metadata", "name")...); got != "imported" {
t.Fatalf("metadata value = %#v", got)
}
if got := facadeDestinationValue(t, test.result.Config, at("prompts", "a", "name")...); got != "alpha" {
t.Fatalf("first glob value = %#v", got)
}
if got := facadeDestinationValue(t, test.result.Config, at("prompts", "b", "name")...); got != "beta" {
t.Fatalf("second glob value = %#v", got)
}
if got := facadeDestinationValue(t, test.result.Config, at("profiles", "name")...); got != "profile" {
t.Fatalf("entry value = %#v", got)
}
if got := facadeDestinationValue(t, test.result.Config, at("profiles", "details", "summary")...); got != "nested" {
t.Fatalf("nested import value = %#v", got)
}
if got := facadeDestinationValue(t, test.result.Config, at("sibling", "name")...); got != "separate" {
t.Fatalf("subsequent sibling value = %#v", got)
}
wantPaths := []string{
"main.yml", "metadata.yml", "a.yml", "b.yml", "main.yml", "details.yml", "sibling.yml",
}
wantPhysicalPaths := []string{
mainPath,
filepath.Join(directory, "metadata.yml"),
filepath.Join(directory, "prompts", "a.yml"),
filepath.Join(directory, "prompts", "b.yml"),
filepath.Join(directory, "entries", "main.yml"),
filepath.Join(directory, "entries", "nested", "details.yml"),
filepath.Join(directory, "sibling.yml"),
}
wantImportParents := []string{"", "source-1", "source-1", "source-1", "source-1", "source-5", "source-1"}
wantDestinations := []configkit.Path{configkit.Keys(test.prefix...)}
for _, suffix := range [][]string{{"metadata"}, {"prompts"}, {"prompts"}, {"profiles"}, {"profiles", "details"}, {"sibling"}} {
destination := append([]string(nil), test.prefix...)
for _, segment := range suffix {
destination = append(destination, segment)
}
wantDestinations = append(wantDestinations, configkit.Keys(destination...))
}
sources := test.result.Sources()
if len(sources) != len(wantPaths) {
t.Fatalf("sources = %#v, want %d", sources, len(wantPaths))
}
for index, source := range sources {
if filepath.Base(source.Path) != wantPaths[index] || source.Path != wantPhysicalPaths[index] || source.Destination.String() != wantDestinations[index].String() {
t.Errorf("source %d path/destination = (%q, %q), want physical path %q and destination %q", index, source.Path, source.Destination.String(), wantPhysicalPaths[index], wantDestinations[index].String())
}
if source.ID != fmt.Sprintf("source-%d", index+1) || source.Kind != configkit.SourceKindFile {
t.Errorf("source %d identity/kind = (%q, %q)", index, source.ID, source.Kind)
}
if wantImportParents[index] == "" {
if source.ImportedFrom != nil {
t.Errorf("entry source unexpectedly has an import location: %#v", source.ImportedFrom)
}
} else if source.ImportedFrom == nil || source.ImportedFrom.SourceID != wantImportParents[index] || source.ImportedFrom.Line == 0 || source.ImportedFrom.Column == 0 {
t.Errorf("source %d import location = %#v, want declaration in %s", index, source.ImportedFrom, wantImportParents[index])
}
}
})
}
}
func TestFacadeSameFragmentMountsAtSeparateCollectionDestinations(t *testing.T) {
weatherDestination := configkit.Keys("collections", "weather", "prompts")
homeDestination := configkit.Keys("collections", "homewatch", "prompts")
@@ -357,6 +490,135 @@ func TestFacadeFailedLoadExposesDetachedSourceDestination(t *testing.T) {
}
}
func TestFacadeRelativeImportFailuresRetainSourceRecordsAndCoordinates(t *testing.T) {
directory := t.TempDir()
write := func(name, contents string) string {
t.Helper()
filename := filepath.Join(directory, name)
if err := os.MkdirAll(filepath.Dir(filename), 0o755); err != nil {
t.Fatal(err)
}
if err := os.WriteFile(filename, []byte(contents), 0o600); err != nil {
t.Fatal(err)
}
return filename
}
t.Run("imported parse failure retains effective source destination", func(t *testing.T) {
mainPath := write("parse/main.yml", "configkit:\n imports:\n - path: child.yml\n destination: [tenant]\n")
childPath := write("parse/child.yml", "count: [unterminated\n")
_, err := configkit.LoadLayered[map[string]any](configkit.Input{
Source: configkit.File(mainPath), Imports: true, Destination: configkit.Keys("mount"),
})
var loadError *configkit.LoadError
if !errors.As(err, &loadError) {
t.Fatalf("load error = %T %v", err, err)
}
diagnostics := loadError.Diagnostics()
if len(diagnostics) != 1 || diagnostics[0].Code != configkit.CodeYAMLInvalid || diagnostics[0].Primary == nil || diagnostics[0].Primary.SourceID != "source-2" {
t.Fatalf("imported parse diagnostic = %#v", diagnostics)
}
sources := loadError.Sources()
if len(sources) != 2 || sources[0].Destination.String() != "/mount" || sources[1].Destination.String() != "/mount/tenant" || sources[1].Path != childPath {
t.Fatalf("imported parse failure sources = %#v", sources)
}
})
t.Run("directive failure stays source local", func(t *testing.T) {
mainPath := write("directive/main.yml", "configkit:\n imports:\n - path: parent.yml\n destination: [tenant]\n")
parentPath := write("directive/parent.yml", "configkit:\n imports:\n - path: details.yml\n destination: [3]\n")
_, err := configkit.LoadLayered[map[string]any](configkit.Input{
Source: configkit.File(mainPath), Imports: true, Destination: configkit.Keys("mount"),
})
var loadError *configkit.LoadError
if !errors.As(err, &loadError) {
t.Fatalf("load error = %T %v", err, err)
}
diagnostics := loadError.Diagnostics()
wantPath := configkit.Keys("configkit", "imports").Index(0).Key("destination").Index(0)
if len(diagnostics) != 1 || diagnostics[0].Code != configkit.CodeImportInvalid || !reflect.DeepEqual(diagnostics[0].Path, wantPath) || diagnostics[0].Primary == nil || diagnostics[0].Primary.SourceID != "source-2" {
t.Fatalf("import directive diagnostic = %#v", diagnostics)
}
sources := loadError.Sources()
if len(sources) != 2 || sources[0].Destination.String() != "/mount" || sources[1].Destination.String() != "/mount/tenant" || sources[1].Path != parentPath {
t.Fatalf("directive failure sources = %#v", sources)
}
})
t.Run("composition failure reports effective path and all sources", func(t *testing.T) {
mainPath := write("compose/main.yml", "configkit:\n imports:\n - path: left.yml\n destination: [tenant]\n - path: right.yml\n destination: [tenant]\n")
write("compose/left.yml", "value: same\n")
write("compose/right.yml", "value: same\n")
_, err := configkit.LoadLayered[map[string]any](configkit.Input{
Source: configkit.File(mainPath), Imports: true, Destination: configkit.Keys("mount"),
})
var loadError *configkit.LoadError
if !errors.As(err, &loadError) {
t.Fatalf("load error = %T %v", err, err)
}
diagnostics := loadError.Diagnostics()
if len(diagnostics) != 1 || diagnostics[0].Code != configkit.CodeComposeConflict || diagnostics[0].Path.String() != "/mount/tenant/value" {
t.Fatalf("composition diagnostic = %#v", diagnostics)
}
sources := loadError.Sources()
if len(sources) != 3 || sources[0].Destination.String() != "/mount" || sources[1].Destination.String() != "/mount/tenant" || sources[2].Destination.String() != "/mount/tenant" {
t.Fatalf("composition failure sources = %#v", sources)
}
})
t.Run("version failure reports effective path and imported source", func(t *testing.T) {
mainPath := write("version/main.yml", "configkit:\n imports:\n - path: child.yml\n destination: [tenant]\n")
childPath := write("version/child.yml", "version: forbidden\n")
_, err := configkit.LoadLayered[map[string]any](configkit.Input{
Source: configkit.File(mainPath), Imports: true, Destination: configkit.Keys("mount"),
}, configkit.LayeredOptions[map[string]any]{
Definition: configkit.Definition[map[string]any]{Version: &configkit.VersionRule{
Path: configkit.Keys("mount", "tenant", "version"),
Check: func(configkit.Version, *configkit.Validation) error { return nil },
}},
})
var loadError *configkit.LoadError
if !errors.As(err, &loadError) {
t.Fatalf("load error = %T %v", err, err)
}
diagnostics := loadError.Diagnostics()
if len(diagnostics) != 1 || diagnostics[0].Code != configkit.CodeImportVersion || diagnostics[0].Path.String() != "/mount/tenant/version" || diagnostics[0].Primary == nil || diagnostics[0].Primary.SourceID != "source-2" {
t.Fatalf("version diagnostic = %#v", diagnostics)
}
sources := loadError.Sources()
if len(sources) != 2 || sources[0].Destination.String() != "/mount" || sources[1].Destination.String() != "/mount/tenant" || sources[1].Path != childPath {
t.Fatalf("version failure sources = %#v", sources)
}
})
t.Run("typed validation reports effective path and authored location", func(t *testing.T) {
type configuration struct {
Mount struct {
Tenant struct {
Count int `yaml:"count"`
} `yaml:"tenant"`
} `yaml:"mount"`
}
mainPath := write("typed/main.yml", "configkit:\n imports:\n - path: child.yml\n destination: [tenant]\n")
childPath := write("typed/child.yml", "count: invalid\n")
_, err := configkit.LoadLayered[configuration](configkit.Input{
Source: configkit.File(mainPath), Imports: true, Destination: configkit.Keys("mount"),
})
var loadError *configkit.LoadError
if !errors.As(err, &loadError) {
t.Fatalf("load error = %T %v", err, err)
}
diagnostics := loadError.Diagnostics()
if len(diagnostics) != 1 || diagnostics[0].Code != configkit.CodeDecodeType || diagnostics[0].Path.String() != "/mount/tenant/count" || diagnostics[0].Primary == nil || diagnostics[0].Primary.SourceID != "source-2" || diagnostics[0].Primary.Line != 1 {
t.Fatalf("typed validation diagnostic = %#v", diagnostics)
}
sources := loadError.Sources()
if len(sources) != 2 || sources[0].Destination.String() != "/mount" || sources[1].Destination.String() != "/mount/tenant" || sources[1].Path != childPath {
t.Fatalf("typed validation sources = %#v", sources)
}
})
}
func TestFacadeDestinationMappingFailurePaths(t *testing.T) {
t.Parallel()

View File

@@ -0,0 +1,249 @@
package configkit_test
import (
"fmt"
"strings"
"testing"
"gitea.maximumdirect.net/eric/ConfigKit"
)
func TestFinalSequenceIdentityTreatsLateExtendsFieldsAsPayload(t *testing.T) {
for _, phase := range []string{"defaults", "resolution"} {
for _, component := range []any{"application-data", nil} {
for _, duplicate := range []bool{false, true} {
t.Run(fmt.Sprintf("%s/%v/duplicate=%t", phase, component, duplicate), func(t *testing.T) {
items := []any{map[string]any{"extends": component}}
if duplicate {
items = append(items, map[string]any{"extends": component})
}
definition := configkit.Definition[map[string]any]{
SequenceIdentities: []configkit.SequenceIdentity{configkit.SequenceIdentityAt(configkit.Keys("items"), "extends")},
Defaults: func() map[string]any {
if phase == "defaults" {
return map[string]any{"items": items}
}
return map[string]any{}
},
}
if phase == "resolution" {
definition.Resolve = func(value *map[string]any, resolution *configkit.Resolution) error {
(*value)["items"] = items
resolution.Record(configkit.Keys("items"), configkit.ChangeNormalization, "supply application payload")
return nil
}
}
loaded, err := configkit.Load(configkit.NoSource(), configkit.Options[map[string]any]{Definition: definition})
if duplicate {
loadErr := requireFacadeLoadError(t, err)
diagnostics := loadErr.Diagnostics()
if loaded != nil || len(diagnostics) != 1 || diagnostics[0].Code != configkit.CodeSequenceConflict || diagnostics[0].Path.String() != "/items" {
t.Fatalf("duplicate effective payload diagnostics = %#v", diagnostics)
}
return
}
if err != nil || loaded == nil {
t.Fatalf("ordinary effective identity was interpreted as a directive: %v", err)
}
value := loaded.Config["items"].([]any)[0].(map[string]any)
if actual, present := value["extends"]; !present || actual != component {
t.Fatalf("effective payload = %#v", value)
}
})
}
}
}
}
func TestFinalSequenceIdentityValidatesLateValues(t *testing.T) {
identity := configkit.SequenceIdentityAt(configkit.Keys("items"), "id")
for _, source := range []string{"defaults", "CLI", "resolution"} {
for _, shape := range []string{"duplicate", "missing", "non-scalar"} {
t.Run(source+"/"+shape, func(t *testing.T) {
items := finalIdentityRecords(shape)
definition := configkit.Definition[map[string]any]{
SequenceIdentities: []configkit.SequenceIdentity{identity},
Defaults: func() map[string]any {
if source == "defaults" {
return map[string]any{"items": items}
}
return map[string]any{}
},
}
options := configkit.Options[map[string]any]{Definition: definition}
switch source {
case "CLI":
options.Overrides = []configkit.Override{{Path: configkit.Keys("items"), Value: items, Flag: "--items"}}
case "resolution":
options.Definition.Resolve = func(value *map[string]any, resolution *configkit.Resolution) error {
(*value)["items"] = items
resolution.Record(configkit.Keys("items"), configkit.ChangeNormalization, "create effective records")
return nil
}
}
result, err := configkit.Load(configkit.NoSource(), options)
if result != nil {
t.Fatalf("invalid final identities returned a result: %#v", result.Config)
}
loadErr := requireFacadeLoadError(t, err)
if len(loadErr.Diagnostics()) != 1 {
t.Fatalf("diagnostics = %#v", loadErr.Diagnostics())
}
diagnostic := loadErr.Diagnostics()[0]
wantCode, wantPath := configkit.CodeSequenceInvalid, "/items/0/id"
if shape == "duplicate" {
wantCode, wantPath = configkit.CodeSequenceConflict, "/items"
}
if diagnostic.Code != wantCode || diagnostic.Path.String() != wantPath {
t.Fatalf("diagnostic = %#v, want %s at %s", diagnostic, wantCode, wantPath)
}
if source == "CLI" && (diagnostic.Primary == nil || diagnostic.Primary.SourceID != "source-1") {
t.Fatalf("CLI identity diagnostic lost its source: %#v", diagnostic)
}
})
}
}
}
func TestFinalSequenceIdentityMatchesLateDynamicNamespaces(t *testing.T) {
selector := configkit.SequenceSelector{
configkit.SequenceLiteralKey("collections"),
configkit.SequenceAnyMappingKey(),
configkit.SequenceLiteralKey("items"),
}
for _, source := range []string{"defaults", "CLI", "resolution"} {
t.Run(source, func(t *testing.T) {
name := map[string]string{"defaults": "team", "CLI": "cloud", "resolution": "orbit"}[source]
path := configkit.Keys("collections", name, "items")
items := finalIdentityRecords("duplicate")
definition := configkit.Definition[map[string]any]{
SequenceIdentities: []configkit.SequenceIdentity{
configkit.SequenceIdentityMatching(selector, "id"),
},
Defaults: func() map[string]any {
if source == "defaults" {
return map[string]any{"collections": map[string]any{name: map[string]any{"items": items}}}
}
return map[string]any{}
},
}
options := configkit.Options[map[string]any]{Definition: definition}
switch source {
case "CLI":
options.Overrides = []configkit.Override{{Path: path, Value: items, Flag: "--items"}}
case "resolution":
options.Definition.Resolve = func(value *map[string]any, resolution *configkit.Resolution) error {
(*value)["collections"] = map[string]any{name: map[string]any{"items": items}}
resolution.Record(configkit.Keys("collections"), configkit.ChangeNormalization, "create namespaced records")
return nil
}
}
result, err := configkit.Load(configkit.NoSource(), options)
if result != nil {
t.Fatalf("invalid dynamic identity returned a result: %#v", result.Config)
}
loadErr := requireFacadeLoadError(t, err)
if diagnostics := loadErr.Diagnostics(); len(diagnostics) != 1 || diagnostics[0].Code != configkit.CodeSequenceConflict || diagnostics[0].Path.String() != path.String() {
t.Fatalf("dynamic identity diagnostics = %#v", diagnostics)
}
})
}
}
func TestFinalSequenceIdentityAppliesToLayeredLoads(t *testing.T) {
definition := configkit.Definition[map[string]any]{
SequenceIdentities: []configkit.SequenceIdentity{configkit.SequenceIdentityAt(configkit.Keys("items"), "id")},
Defaults: func() map[string]any {
return map[string]any{"items": finalIdentityRecords("duplicate")}
},
}
result, err := configkit.LoadLayered(configkit.Input{Source: configkit.NoSource()}, configkit.LayeredOptions[map[string]any]{Definition: definition})
if result != nil {
t.Fatalf("invalid layered final identities returned a result: %#v", result.Config)
}
loadErr := requireFacadeLoadError(t, err)
if diagnostics := loadErr.Diagnostics(); len(diagnostics) != 1 || diagnostics[0].Code != configkit.CodeSequenceConflict {
t.Fatalf("layered identity diagnostics = %#v", diagnostics)
}
}
func TestFinalSequenceIdentityUsesTypedNumbersAndIgnoresUnmatchedShapes(t *testing.T) {
definition := configkit.Definition[map[string]any]{
SequenceIdentities: []configkit.SequenceIdentity{
configkit.SequenceIdentityAt(configkit.Keys("items"), "id"),
configkit.SequenceIdentityAt(configkit.Keys("unmatched"), "id"),
},
}
_, err := configkit.Load(configkit.NoSource(), configkit.Options[map[string]any]{
Definition: configkit.Definition[map[string]any]{
SequenceIdentities: definition.SequenceIdentities,
Defaults: func() map[string]any {
return map[string]any{"items": []any{
map[string]any{"id": int64(1)}, map[string]any{"id": float64(1)},
}}
},
},
})
loadErr := requireFacadeLoadError(t, err)
if diagnostics := loadErr.Diagnostics(); len(diagnostics) != 1 || diagnostics[0].Code != configkit.CodeSequenceConflict {
t.Fatalf("typed numeric identity diagnostics = %#v", diagnostics)
}
valid, err := configkit.Load(configkit.Mapping("valid", map[string]any{
"items": []any{
map[string]any{"id": nil}, map[string]any{"id": true},
map[string]any{"id": int64(1)}, map[string]any{"id": "one"},
},
"other": []any{map[string]any{"id": "same"}, map[string]any{"id": "same"}},
}), configkit.Options[map[string]any]{Definition: definition})
if err != nil || valid == nil {
t.Fatalf("valid scalar identities and unmatched duplicate sequence = %#v, %v", valid, err)
}
if _, err := configkit.Load(configkit.Mapping("other-shapes", map[string]any{"items": nil}), configkit.Options[map[string]any]{Definition: definition}); err != nil {
t.Fatalf("null at a registered path was validated as an identity sequence: %v", err)
}
}
func TestFinalSequenceIdentityDiagnosticDoesNotRevealResolvedSecrets(t *testing.T) {
const canary = "FINAL-IDENTITY-CREDENTIAL-CANARY"
const secretName = "CONFIGKIT_FINAL_IDENTITY_SECRET"
t.Setenv(secretName, canary)
type item struct {
ID string `yaml:"id"`
Token configkit.Secret `yaml:"token"`
}
type config struct {
Items []item `yaml:"items"`
}
definition := configkit.Definition[config]{
SequenceIdentities: []configkit.SequenceIdentity{configkit.SequenceIdentityAt(configkit.Keys("items"), "id")},
Defaults: func() config {
return config{Items: []item{
{ID: "duplicate", Token: configkit.SecretEnv(secretName)},
{ID: "duplicate", Token: configkit.SecretEnv(secretName)},
}}
},
}
result, err := configkit.Load(configkit.NoSource(), configkit.Options[config]{Definition: definition})
if result != nil {
t.Fatalf("duplicate identity returned a result: %#v", result.Config)
}
if err == nil || strings.Contains(err.Error(), canary) {
t.Fatalf("identity diagnostic leaked a resolved secret: %v", err)
}
loadErr := requireFacadeLoadError(t, err)
if diagnostics := loadErr.Diagnostics(); len(diagnostics) != 1 || diagnostics[0].Code != configkit.CodeSequenceConflict {
t.Fatalf("secret-bearing identity diagnostics = %#v", diagnostics)
}
}
func finalIdentityRecords(shape string) []any {
switch shape {
case "duplicate":
return []any{map[string]any{"id": "same"}, map[string]any{"id": "same"}}
case "missing":
return []any{map[string]any{"other": "value"}}
default:
return []any{map[string]any{"id": map[string]any{"nested": "value"}}}
}
}

View File

@@ -0,0 +1,99 @@
package configkit_test
import (
"errors"
"io/fs"
"os"
"path"
"path/filepath"
"testing"
configkit "gitea.maximumdirect.net/eric/ConfigKit"
)
func TestFacadeNativeDiscoveryPreservesAliasIdentity(t *testing.T) {
root := t.TempDir()
for name, contents := range map[string]string{
"data/item.yml": "configkit:\n imports:\n - path: helper.yml\nvalue: item\n",
"data/helper.yml": "owner: target\nresource: resource.txt\n",
"aliases/helper.yml": "owner: alias\nresource: resource.txt\n",
"data/resource.txt": "target resource",
"aliases/resource.txt": "alias resource",
} {
filename := filepath.Join(root, filepath.FromSlash(name))
if err := os.MkdirAll(filepath.Dir(filename), 0o700); err != nil {
t.Fatal(err)
}
if err := os.WriteFile(filename, []byte(contents), 0o600); err != nil {
t.Fatal(err)
}
}
for name, target := range map[string]string{"aliases/item.yml": "../data/item.yml", "linked": "data"} {
if err := os.Symlink(target, filepath.Join(root, filepath.FromSlash(name))); err != nil {
t.Skipf("symlinks unavailable: %v", err)
}
}
filesystem := configkit.NewFilesystem("aliases", os.DirFS(root))
type configuration struct {
Value string `yaml:"value"`
Owner string `yaml:"owner"`
Resource string `yaml:"resource"`
}
for _, test := range []struct {
name, declaration, item, helper, owner, resource string
}{
{"file/path", "path: aliases/item.yml", "aliases/item.yml", "aliases/helper.yml", "alias", "alias resource"},
{"file/dir", "dir: aliases\n pattern: item.yml", "aliases/item.yml", "aliases/helper.yml", "alias", "alias resource"},
{"file/glob", "glob: 'aliases/ite*.yml'", "aliases/item.yml", "aliases/helper.yml", "alias", "alias resource"},
{"directory/path", "path: linked/item.yml", "linked/item.yml", "linked/helper.yml", "target", "target resource"},
{"directory/dir", "dir: linked\n pattern: item.yml", "linked/item.yml", "linked/helper.yml", "target", "target resource"},
{"directory/glob", "glob: 'lin*/ite*.yml'", "linked/item.yml", "linked/helper.yml", "target", "target resource"},
} {
t.Run(test.name, func(t *testing.T) {
result, err := configkit.Load(configkit.Bytes("main", []byte("configkit:\n imports:\n - "+test.declaration+"\n")), configkit.Options[configuration]{
Imports: true, Filesystem: &configkit.FilesystemContext{FS: &filesystem, Root: ".", BaseDir: "."},
})
if err != nil {
t.Fatal(err)
}
if result.Config.Owner != test.owner || result.Config.Value != "item" {
t.Fatalf("configuration = %#v", result.Config)
}
sources := result.Sources()
if len(sources) != 3 || sources[1].Path != test.item || sources[2].Path != test.helper {
t.Fatalf("source identities = %#v", sources)
}
for field, source := range map[string]configkit.SourceInfo{"value": sources[1], "resource": sources[2]} {
info, ok := result.Metadata().Lookup(configkit.Keys(field))
if !ok || len(info.Origin.Locations) != 1 || info.Origin.Locations[0].SourceID != source.ID {
t.Fatalf("%s origin = %#v", field, info)
}
context, ok := result.SourceContext(source.ID)
if !ok || context.BaseDir != path.Dir(source.Path) {
t.Fatalf("%s context = %#v", field, context)
}
contents, err := fs.ReadFile(context.FS, path.Join(context.BaseDir, result.Config.Resource))
if err != nil || string(contents) != test.resource {
t.Fatalf("%s resource = %q, %v", field, contents, err)
}
}
})
}
// The same native path is still a repeat when separately included. An alias
// to a leaf file remains a different native namespace path, as for path imports.
for _, selector := range []string{"path: aliases/item.yml", "dir: aliases\n pattern: item.yml", "glob: 'aliases/ite*.yml'"} {
_, err := configkit.Load(configkit.Bytes("main", []byte("configkit:\n imports:\n - "+selector+"\n - path: aliases/item.yml\n")), configkit.Options[configuration]{
Imports: true, Filesystem: &configkit.FilesystemContext{FS: &filesystem, Root: ".", BaseDir: "."},
})
var loadError *configkit.LoadError
if !errors.As(err, &loadError) || len(loadError.Diagnostics()) != 1 || loadError.Diagnostics()[0].Code != configkit.CodeImportRepeated {
t.Fatalf("repeated source: %v", err)
}
_, err = configkit.Load(configkit.Bytes("main", []byte("configkit:\n imports:\n - "+selector+"\n - path: data/item.yml\n")), configkit.Options[configuration]{
Imports: true, Filesystem: &configkit.FilesystemContext{FS: &filesystem, Root: ".", BaseDir: "."},
})
if !errors.As(err, &loadError) || len(loadError.Diagnostics()) == 0 || loadError.Diagnostics()[0].Code != configkit.CodeComposeConflict {
t.Fatalf("distinct native alias paths should reach composition: %v", err)
}
}
}

View File

@@ -0,0 +1,260 @@
package configkit
import (
"errors"
"os"
"path/filepath"
"strings"
"testing"
"gitea.maximumdirect.net/eric/ConfigKit/internal/engine"
)
func TestImportDepthChecksSuffixAfterSaturation(t *testing.T) {
for _, test := range []struct {
depth string
valid bool
}{
{"999999999999999999999999.5", false},
{"999999999999999999999999e1", false},
{"999999999999999999999999", true},
{"-0", true},
} {
t.Run(test.depth, func(t *testing.T) {
main := writeFacadeImportFile(t, t.TempDir(), "main.yml", "value: true\nconfigkit:\n imports:\n - dir: absent\n recursive: true\n depth: "+test.depth+"\n")
result, err := Load[map[string]any](File(main), Options[map[string]any]{Imports: true})
if test.valid {
if err != nil || result.Config["value"] != true {
t.Fatalf("valid depth: %v", err)
}
return
}
var loadError *LoadError
if !errors.As(err, &loadError) || len(loadError.Diagnostics()) != 1 {
t.Fatalf("invalid depth accepted: %v", err)
}
if diagnostic := loadError.Diagnostics()[0]; diagnostic.Code != CodeImportInvalid || diagnostic.Path.String() != "/configkit/imports/0/depth" {
t.Fatalf("invalid depth diagnostic = %#v", diagnostic)
}
})
}
}
func TestImportDefaultsApplyToTransitiveAndUnderlayImports(t *testing.T) {
type config struct {
Main string `yaml:"main"`
Transitive string `yaml:"transitive"`
Exception string `yaml:"exception"`
Underlay string `yaml:"underlay"`
IgnoredDeep string `yaml:"ignored_deep"`
}
directory := t.TempDir()
mainPath := writeFacadeImportFile(t, directory, "main.yml", `configkit:
imports:
- path: parent/parent.yml
main: main
`)
writeFacadeImportFile(t, directory, "parent/parent.yml", `configkit:
imports:
- dir: generated
- dir: explicit
pattern: '*.yaml'
recursive: false
`)
transitivePath := writeFacadeImportFile(t, directory, "parent/generated/deep/transitive.cfg", "transitive: selected\n")
writeFacadeImportFile(t, directory, "parent/generated/ignored.yaml", "ignored_deep: wrong-pattern\n")
explicitPath := writeFacadeImportFile(t, directory, "parent/explicit/exception.yaml", "exception: declaration\n")
writeFacadeImportFile(t, directory, "parent/explicit/deep/ignored.yaml", "ignored_deep: wrong-depth\n")
writeFacadeImportFile(t, directory, "parent/explicit/ignored.cfg", "ignored_deep: wrong-explicit-pattern\n")
underlayPath := writeFacadeImportFile(t, directory, "underlay.yml", `configkit:
imports:
- dir: underlay-files
`)
underlayImportPath := writeFacadeImportFile(t, directory, "underlay-files/underlay.cfg", "underlay: selected\n")
recursive := true
loaded, err := LoadLayered(Input{Source: File(mainPath), Imports: true}, LayeredOptions[config]{
ImportDefaults: ImportDefaults{Recursive: &recursive, Pattern: []string{"*.cfg"}},
Underlays: []Underlay{{Inputs: []Input{{Source: File(underlayPath), Imports: true}}}},
})
if err != nil {
t.Fatalf("LoadLayered: %v", err)
}
if loaded.Config.Main != "main" || loaded.Config.Transitive != "selected" || loaded.Config.Exception != "declaration" || loaded.Config.Underlay != "selected" || loaded.Config.IgnoredDeep != "" {
t.Fatalf("configuration = %#v", loaded.Config)
}
paths := make(map[string]bool)
for _, source := range loaded.Sources() {
paths[source.Path] = true
}
for _, selected := range []string{transitivePath, explicitPath, underlayImportPath} {
if !paths[canonicalFacadeImportPath(t, selected)] {
t.Errorf("selected source %q missing from source records", selected)
}
}
}
func TestImportDefaultsPreserveEmptyPatternAndRequiredness(t *testing.T) {
type config struct {
Value string `yaml:"value"`
}
directory := t.TempDir()
mainPath := writeFacadeImportFile(t, directory, "main.yml", `configkit:
imports:
- dir: snippets
`)
writeFacadeImportFile(t, directory, "snippets/value.cfg", "value: imported\n")
unrestricted, err := Load(File(mainPath), Options[config]{Imports: true})
if err != nil || unrestricted.Config.Value != "imported" {
t.Fatalf("unspecified pattern = %#v, %v", unrestricted, err)
}
empty, err := Load(File(mainPath), Options[config]{Imports: true, ImportDefaults: ImportDefaults{Pattern: []string{}}})
if err != nil || empty.Config.Value != "" {
t.Fatalf("empty pattern = %#v, %v", empty, err)
}
emptySources := empty.Sources()
if len(emptySources) != 1 || len(emptySources[0].ImportSelections) != 1 || emptySources[0].ImportSelections[0].Path.String() != "/configkit/imports/0" || emptySources[0].ImportSelections[0].Selector != ImportSelectorDirectory || emptySources[0].ImportSelections[0].Outcome != ImportSelectionNone {
t.Fatalf("empty-pattern evidence = %#v", emptySources)
}
required := true
_, err = Load(File(mainPath), Options[config]{Imports: true, ImportDefaults: ImportDefaults{Required: &required, Pattern: []string{}}})
var loadError *LoadError
if !errors.As(err, &loadError) || len(loadError.Diagnostics()) != 1 || loadError.Diagnostics()[0].Code != CodeImportMissing {
t.Fatalf("required empty selection error = %T %v", err, err)
}
if sources := loadError.Sources(); len(sources) != 1 || len(sources[0].ImportSelections) != 0 {
t.Fatalf("required empty selection was recorded as optional: %#v", sources)
}
recursiveMain := writeFacadeImportFile(t, directory, "recursive.yml", `configkit:
imports:
- dir: recursive-files
`)
writeFacadeImportFile(t, directory, "recursive-files/nested/value.cfg", "value: selected\n")
recursive := true
patterns := []string{"*.cfg"}
engineOptions := toEngineOptions(Options[config]{Imports: true, ImportDefaults: ImportDefaults{Recursive: &recursive, Pattern: patterns}})
recursive = false
patterns[0] = "["
loadedEngine, err := engine.Load(File(recursiveMain).toEngine(), secretBinding(), engineOptions)
if err != nil || loadedEngine.Config.Value != "selected" {
t.Fatalf("load after mutating caller defaults = %#v, %v", loadedEngine, err)
}
}
func TestInvalidImportDefaultsPreflightBeforeOrdinaryAndLayeredReads(t *testing.T) {
type config struct {
Value string `yaml:"value"`
}
for _, layered := range []bool{false, true} {
input := strings.NewReader("value: read\n")
underlayInput := strings.NewReader("value: underlay\n")
defaultsCalled := false
resolveCalled := false
definition := Definition[config]{
Defaults: func() config { defaultsCalled = true; return config{} },
Resolve: func(*config, *Resolution) error { resolveCalled = true; return nil },
}
defaults := ImportDefaults{Pattern: []string{"["}}
var err error
if layered {
_, err = LoadLayered(Input{Source: Reader("reader.yml", input)}, LayeredOptions[config]{
Definition: definition, ImportDefaults: defaults,
Underlays: []Underlay{{Inputs: []Input{{Source: Reader("underlay.yml", underlayInput)}}}},
})
} else {
_, err = Load(Reader("reader.yml", input), Options[config]{Definition: definition, ImportDefaults: defaults})
}
var loadError *LoadError
if !errors.As(err, &loadError) || len(loadError.Diagnostics()) != 1 || loadError.Diagnostics()[0].Code != CodeOptionsInvalid {
if loadError != nil {
t.Fatalf("layered=%v diagnostics = %#v", layered, loadError.Diagnostics())
}
t.Fatalf("layered=%v error = %T %v", layered, err, err)
}
if input.Len() != len("value: read\n") || underlayInput.Len() != len("value: underlay\n") || defaultsCalled || resolveCalled {
t.Fatalf("layered=%v consumed input or called application hooks: remaining=%d underlay=%d defaults=%v resolve=%v", layered, input.Len(), underlayInput.Len(), defaultsCalled, resolveCalled)
}
}
}
func TestPublicImportSelectionSnapshotsAreDetachedAcrossResultErrorAndResolution(t *testing.T) {
type config struct {
Value string `yaml:"value"`
}
directory := t.TempDir()
mainPath := writeFacadeImportFile(t, directory, "main.yml", `configkit:
imports:
- dir: absent
value: loaded
`)
callbackPath := ""
loaded, err := Load(File(mainPath), Options[config]{Imports: true, Definition: Definition[config]{Resolve: func(_ *config, resolution *Resolution) error {
first, ok := resolution.Source("source-1")
if !ok || len(first.ImportSelections) != 1 {
t.Fatalf("resolution source = %#v, %v", first, ok)
}
first.ImportSelections[0].Path = Keys("callback mutation")
second, ok := resolution.Source("source-1")
if !ok || second.ImportSelections[0].Path.String() != "/configkit/imports/0" {
t.Fatalf("resolution snapshot changed after mutation: %#v", second)
}
callbackPath = second.ImportSelections[0].Path.String()
return nil
}}})
if err != nil {
t.Fatal(err)
}
if callbackPath != "/configkit/imports/0" {
t.Fatalf("callback path = %q", callbackPath)
}
sources := loaded.Sources()
if len(sources) != 1 || len(sources[0].ImportSelections) != 1 || sources[0].ImportSelections[0].Location.SourceID != sources[0].ID || sources[0].ImportSelections[0].Selector != ImportSelectorDirectory {
t.Fatalf("result source evidence = %#v", sources)
}
sources[0].ImportSelections[0].Path = Keys("result mutation")
if got := loaded.Sources()[0].ImportSelections[0].Path.String(); got != "/configkit/imports/0" {
t.Fatalf("result snapshot changed after mutation: %q", got)
}
failurePath := writeFacadeImportFile(t, directory, "failure.yml", `configkit:
imports:
- dir: absent
- path: required-missing.yml
required: true
`)
_, err = Load(File(failurePath), Options[config]{Imports: true})
var loadError *LoadError
if !errors.As(err, &loadError) {
t.Fatalf("failed load error = %T %v", err, err)
}
errorSources := loadError.Sources()
if len(errorSources) != 1 || len(errorSources[0].ImportSelections) != 1 || errorSources[0].ImportSelections[0].Path.String() != "/configkit/imports/0" {
t.Fatalf("error source evidence = %#v", errorSources)
}
errorSources[0].ImportSelections[0].Path = Keys("error mutation")
if got := loadError.Sources()[0].ImportSelections[0].Path.String(); got != "/configkit/imports/0" {
t.Fatalf("error snapshot changed after mutation: %q", got)
}
}
func writeFacadeImportFile(t *testing.T, root, name, contents string) string {
t.Helper()
filename := filepath.Join(root, name)
if err := os.MkdirAll(filepath.Dir(filename), 0o700); err != nil {
t.Fatal(err)
}
if err := os.WriteFile(filename, []byte(contents), 0o600); err != nil {
t.Fatal(err)
}
return filename
}
func canonicalFacadeImportPath(t *testing.T, filename string) string {
t.Helper()
canonical, err := filepath.EvalSymlinks(filename)
if err != nil {
t.Fatal(err)
}
return filepath.ToSlash(canonical)
}

View File

@@ -0,0 +1,135 @@
package configkit
import (
"errors"
"io/fs"
"path"
"strings"
"testing"
"testing/fstest"
)
func TestDiscoveredItemHelpersPreserveNestedInheritedResourceEvidence(t *testing.T) {
const canary = "PRIVATE-CONSUMED-HEADER-CANARY"
filesystem := NewFilesystem("bundle", fstest.MapFS{
"bundle/config/main.yml": {Data: []byte(`configkit:
imports:
- dir: records
pattern: '*-item.yml'
destination: [services, records]
placement: sequence-item
services:
records:
- id: authored
version: authored
`)},
"bundle/config/records/a-item.yml": {Data: []byte(`configkit:
imports:
- path: helper.yml
version: ` + canary + `
entries:
parent:
resource: icon.txt
child:
extends: parent
`)},
"bundle/config/records/helper.yml": {Data: []byte("id: helper-supplied\n")},
"bundle/config/records/icon.txt": {Data: []byte("icon payload")},
})
result, err := Load(filesystem.File("bundle/config/main.yml"), Options[map[string]any]{
Imports: true,
Filesystem: &FilesystemContext{Root: "bundle", FS: &filesystem},
Definition: Definition[map[string]any]{
Version: &VersionRule{Path: Keys("version"), Check: func(Version, *Validation) error { return nil }},
SequenceIdentities: []SequenceIdentity{SequenceIdentityAt(Keys("services", "records"), "id")},
Secret: func(candidate Path) bool {
return candidate.String() == "/services/records/0/version"
},
},
SourceVersionMode: SourceVersionModeIfPresent,
})
if err != nil {
var loadError *LoadError
if errors.As(err, &loadError) {
t.Fatalf("load discovered item: %v; diagnostics: %#v", err, loadError.Diagnostics())
}
t.Fatalf("load discovered item: %v", err)
}
services := result.Config["services"].(map[string]any)
records := services["records"].([]any)
if len(records) != 2 || records[0].(map[string]any)["id"] != "helper-supplied" || records[0].(map[string]any)["version"] != nil || records[1].(map[string]any)["version"] != "authored" {
t.Fatalf("nested records = %#v", records)
}
childPath := Keys("services", "records").Index(0).Key("entries").Key("child").Key("resource")
child := records[0].(map[string]any)["entries"].(map[string]any)["child"].(map[string]any)
if child["resource"] != "icon.txt" {
t.Fatalf("inherited relative resource = %#v", child)
}
sources := result.Sources()
filesByID := make(map[string]string, len(sources))
for _, source := range sources {
filesByID[source.ID] = source.Path
}
var itemSource SourceInfo
for _, source := range sources {
if source.Path == "bundle/config/records/a-item.yml" {
itemSource = source
}
}
if itemSource.VersionCheck == nil || !itemSource.VersionCheck.Version.Present || !itemSource.VersionCheck.Redacted || itemSource.VersionCheck.Version.Text != "" {
t.Fatalf("consumed header inspection = %#v", itemSource.VersionCheck)
}
idInfo, ok := result.Metadata().Lookup(Keys("services", "records").Index(0).Key("id"))
if !ok || len(idInfo.Origin.Locations) != 1 || filesByID[idInfo.Origin.Locations[0].SourceID] != "bundle/config/records/helper.yml" {
t.Fatalf("assigned helper ID origin = %#v", idInfo)
}
resourceInfo, ok := result.Metadata().Lookup(childPath)
if !ok || len(resourceInfo.Origin.Locations) != 1 || filesByID[resourceInfo.Origin.Locations[0].SourceID] != "bundle/config/records/a-item.yml" {
t.Fatalf("inherited resource metadata = %#v", resourceInfo)
}
explanation, ok := result.Explain(childPath)
if !ok || explanation.Effective.YAML != "icon.txt\n" || len(explanation.Origin.Locations) != 1 || explanation.Origin.Locations[0].SourceID != resourceInfo.Origin.Locations[0].SourceID {
t.Fatalf("inherited resource explanation = %#v", explanation)
}
context, ok := result.SourceContext(resourceInfo.Origin.Locations[0].SourceID)
if !ok || context.FS == nil || context.BaseDir != "config/records" {
t.Fatalf("inherited resource context = %#v, %v", context, ok)
}
contents, err := fs.ReadFile(context.FS, path.Join(context.BaseDir, child["resource"].(string)))
if err != nil || string(contents) != "icon payload" {
t.Fatalf("inherited resource read = %q, %v", contents, err)
}
_, err = Load(filesystem.File("bundle/config/main.yml"), Options[map[string]any]{
Imports: true,
Filesystem: &FilesystemContext{Root: "bundle", FS: &filesystem},
Definition: Definition[map[string]any]{
Version: &VersionRule{Path: Keys("version"), Check: func(Version, *Validation) error { return nil }},
SequenceIdentities: []SequenceIdentity{SequenceIdentityAt(Keys("services", "records"), "version")},
Secret: func(candidate Path) bool {
return candidate.String() == "/services/records/0/version"
},
},
SourceVersionMode: SourceVersionModeIfPresent,
})
loadError, ok := err.(*LoadError)
if !ok || len(loadError.Diagnostics()) != 1 || loadError.Diagnostics()[0].Code != CodeComposeInvalid {
t.Fatalf("consumed header supplied an identity: %v", err)
}
if strings.Contains(err.Error(), canary) {
t.Fatalf("diagnostic exposed the consumed secret header: %v", err)
}
var failedItemSource SourceInfo
foundFailedItem := false
for _, source := range loadError.Sources() {
if source.Path == "bundle/config/records/a-item.yml" {
failedItemSource = source
foundFailedItem = true
break
}
}
if !foundFailedItem || failedItemSource.VersionCheck == nil || failedItemSource.VersionCheck.Version.Text != "" || !failedItemSource.VersionCheck.Redacted {
t.Fatalf("failed-load source inspection exposed or omitted header evidence: %#v", failedItemSource)
}
}

119
facade_import_root_test.go Normal file
View File

@@ -0,0 +1,119 @@
package configkit_test
import (
"errors"
"fmt"
"os"
"path/filepath"
"testing"
configkit "gitea.maximumdirect.net/eric/ConfigKit"
)
func TestFacadeDirectoryRootBelowContainedAbsoluteSymlink(t *testing.T) {
root, err := filepath.EvalSymlinks(t.TempDir())
if err != nil {
t.Fatal(err)
}
parts := filepath.Join(root, "real", "parts")
if err := os.MkdirAll(parts, 0o700); err != nil {
t.Fatal(err)
}
partPath := filepath.Join(parts, "part.yml")
if err := os.WriteFile(partPath, []byte("value: included\n"), 0o600); err != nil {
t.Fatal(err)
}
if err := os.Symlink(filepath.Join(root, "real"), filepath.Join(root, "absolute")); err != nil {
t.Skipf("symlinks unavailable: %v", err)
}
for _, follow := range []bool{true, false} {
t.Run(fmt.Sprintf("follow=%t", follow), func(t *testing.T) {
mainPath := filepath.Join(root, "main.yml")
contents := fmt.Sprintf("configkit:\n imports:\n - dir: absolute/parts\n pattern: '*.yml'\n follow: %t\n", follow)
if err := os.WriteFile(mainPath, []byte(contents), 0o600); err != nil {
t.Fatal(err)
}
result, err := configkit.Load[map[string]any](configkit.File(mainPath), configkit.Options[map[string]any]{Imports: true})
if err != nil {
t.Fatal(err)
}
if result.Config["value"] != "included" {
t.Fatalf("configuration = %#v", result.Config)
}
if sources := result.Sources(); len(sources) != 2 || sources[1].Path != partPath {
t.Fatalf("canonical imported source = %#v", sources)
}
})
}
}
func TestFacadeNativeDiscoveryWithNestedRoot(t *testing.T) {
root := t.TempDir()
parts := filepath.Join(root, "nested/root/parts")
if err := os.MkdirAll(parts, 0o700); err != nil {
t.Fatal(err)
}
if err := os.WriteFile(filepath.Join(parts, "value.yml"), []byte("value: 1\n"), 0o600); err != nil {
t.Fatal(err)
}
if err := os.Symlink("parts", filepath.Join(root, "nested/root/linked")); err != nil {
t.Skipf("symlinks unavailable: %v", err)
}
filesystem := configkit.NewFilesystem("nested", os.DirFS(root))
context := &configkit.FilesystemContext{FS: &filesystem, Root: "nested/root", BaseDir: "nested/root"}
for _, selector := range []string{
"dir: parts", "glob: 'parts/*.yml'", "dir: linked", "glob: 'lin*/*.yml'",
} {
t.Run(selector, func(t *testing.T) {
result, err := configkit.Load(configkit.Bytes("main", []byte("configkit:\n imports:\n - "+selector+"\n")), configkit.Options[map[string]any]{Imports: true, Filesystem: context})
if err != nil {
t.Fatal(err)
}
if result.Config["value"] != int64(1) {
t.Fatalf("configuration = %#v", result.Config)
}
})
}
if err := os.WriteFile(filepath.Join(root, "nested/outside.yml"), []byte("value: outside\n"), 0o600); err != nil {
t.Fatal(err)
}
if err := os.Symlink("../../outside.yml", filepath.Join(parts, "escape.yml")); err != nil {
t.Fatal(err)
}
for _, selector := range []string{"dir: parts", "glob: 'parts/*.yml'"} {
_, err := configkit.Load(configkit.Bytes("main", []byte("configkit:\n imports:\n - "+selector+"\n")), configkit.Options[map[string]any]{Imports: true, Filesystem: context})
var loadError *configkit.LoadError
if !errors.As(err, &loadError) || len(loadError.Diagnostics()) != 1 || loadError.Diagnostics()[0].Code != configkit.CodeImportOutsideRoot {
t.Fatalf("escaping %s: %v", selector, err)
}
}
}
func TestFacadeDiscoveryAllowsFiniteLinkReuse(t *testing.T) {
root := t.TempDir()
if err := os.Mkdir(filepath.Join(root, "parts"), 0o700); err != nil {
t.Fatal(err)
}
if err := os.WriteFile(filepath.Join(root, "parts/value.yml"), []byte("value: 1\n"), 0o600); err != nil {
t.Fatal(err)
}
if err := os.Symlink("..", filepath.Join(root, "parts/up")); err != nil {
t.Skipf("symlinks unavailable: %v", err)
}
filesystem := configkit.NewFilesystem("finite", os.DirFS(root))
for _, native := range []bool{false, true} {
for _, selector := range []string{"dir: parts/up/parts/up/parts\n pattern: '*.yml'", "glob: 'parts/up/parts/up/parts/*.yml'"} {
context := &configkit.FilesystemContext{Root: root, BaseDir: root}
if native {
context = &configkit.FilesystemContext{FS: &filesystem, Root: ".", BaseDir: "."}
}
result, err := configkit.Load(configkit.Bytes("main", []byte("configkit:\n imports:\n - "+selector+"\n")), configkit.Options[map[string]any]{Imports: true, Filesystem: context})
if err != nil {
t.Fatalf("native=%v selector=%s: %v", native, selector, err)
}
if result.Config["value"] != int64(1) {
t.Fatalf("configuration = %#v", result.Config)
}
}
}
}

View File

@@ -91,6 +91,214 @@ func TestFacadeInheritancePreservesPresenceOriginsAndHistory(t *testing.T) {
}
}
func TestFacadeIdentifiedInheritanceResolvesChainsAndNestedCollections(t *testing.T) {
const secretName = "CONFIGKIT_IDENTIFIED_INHERITANCE_SECRET"
const canary = "IDENTIFIED-INHERITANCE-SECRET-CANARY"
t.Setenv(secretName, canary)
type step struct {
ID string `yaml:"id"`
Value string `yaml:"value"`
}
type job struct {
ID string `yaml:"id"`
Name string `yaml:"name"`
Credential configkit.Secret `yaml:"credential"`
Resource string `yaml:"resource"`
Steps []step `yaml:"steps"`
Settings map[string]map[string]string `yaml:"settings"`
}
type configuration struct {
Jobs []job `yaml:"jobs"`
}
input := []byte(`jobs:
- id: child
extends: {id: parent}
name: child-name
- id: parent
extends: {id: base}
- id: base
name: base-name
credential: CONFIGKIT_IDENTIFIED_INHERITANCE_SECRET
resource: icon.txt
steps:
- id: base-step
value: base-step-value
- id: second-step
value: second-step-value
settings:
primary: {value: base-setting}
secondary: {extends: primary}
`)
filesystem := configkit.NewFilesystem("identified-bundle", fstest.MapFS{
"config/identified.yml": &fstest.MapFile{Data: input},
"config/icon.txt": &fstest.MapFile{Data: []byte("identified-parent-resource")},
})
registrations := []configkit.SequenceIdentity{
configkit.SequenceIdentityAt(configkit.Keys("jobs"), "id"),
}
result, err := configkit.Load(filesystem.File("config/identified.yml"), configkit.Options[configuration]{
Definition: configkit.Definition[configuration]{
SequenceIdentities: registrations,
Secret: func(path configkit.Path) bool {
return path.String() == "/jobs/0/credential" || path.String() == "/jobs/1/credential" || path.String() == "/jobs/2/credential"
},
},
})
if err != nil {
if loadError, ok := err.(*configkit.LoadError); ok {
t.Fatalf("load identified inheritance: %v (%#v)", err, loadError.Diagnostics())
}
t.Fatal(err)
}
if len(result.Config.Jobs) != 3 || result.Config.Jobs[0].ID != "child" || result.Config.Jobs[1].ID != "parent" || result.Config.Jobs[2].ID != "base" {
t.Fatalf("inherited job positions and identities = %#v", result.Config.Jobs)
}
child := result.Config.Jobs[0]
if child.Name != "child-name" || child.Credential.Value() != canary || child.Resource != "icon.txt" || len(child.Steps) != 2 {
t.Fatalf("inherited child = %#v", child)
}
if got := []string{child.Steps[0].ID, child.Steps[1].ID}; strings.Join(got, ",") != "base-step,second-step" {
t.Fatalf("inherited nested steps = %v", got)
}
if child.Steps[0].Value != "base-step-value" || child.Steps[1].Value != "second-step-value" || child.Settings["secondary"]["value"] != "base-setting" {
t.Fatalf("inherited nested collection and mapping = %#v", child)
}
credentialPath := configkit.Keys("jobs").Index(0).Key("credential")
credentialInfo, found := result.Metadata().Lookup(credentialPath)
if !found || len(credentialInfo.Origin.Inheritance) != 2 {
t.Fatalf("inherited secret provenance = %#v, %v", credentialInfo, found)
}
resourceInfo, found := result.Metadata().Lookup(configkit.Keys("jobs").Index(0).Key("resource"))
if !found || len(resourceInfo.Origin.Inheritance) != 2 || len(resourceInfo.Origin.Locations) != 1 {
t.Fatalf("inherited resource provenance = %#v, %v", resourceInfo, found)
}
context, found := result.SourceContext(resourceInfo.Origin.Locations[0].SourceID)
if !found || context.BaseDir != "config" || context.FS == nil {
t.Fatalf("inherited resource context = %#v, %v", context, found)
}
resource, readErr := fs.ReadFile(context.FS, context.BaseDir+"/"+child.Resource)
if readErr != nil || string(resource) != "identified-parent-resource" {
t.Fatalf("inherited resource = %q, %v", resource, readErr)
}
resourceHistory, found := result.Explain(configkit.Keys("jobs").Index(0).Key("resource"))
if !found || len(resourceHistory.History) == 0 {
t.Fatalf("inherited resource history = %#v, %v", resourceHistory, found)
}
credentialHistory, found := result.Explain(credentialPath)
if !found || !credentialHistory.Effective.Redacted {
t.Fatalf("inherited secret explanation = %#v, %v", credentialHistory, found)
}
identityInfo, found := result.Metadata().Lookup(configkit.Keys("jobs").Index(0).Key("id"))
if !found || !identityInfo.Explicit || len(identityInfo.Origin.Inheritance) != 0 ||
len(identityInfo.Origin.Locations) != 1 {
t.Fatalf("child identity origin and presence = %#v, %v", identityInfo, found)
}
if _, found := result.Metadata().Lookup(configkit.Keys("jobs").Index(0).Key("extends")); found {
t.Fatal("identified record relationship remained in effective metadata")
}
var rendered bytes.Buffer
if err := result.WriteEffective(&rendered); err != nil || strings.Contains(rendered.String(), canary) || strings.Contains(rendered.String(), "extends:") {
t.Fatalf("effective inherited configuration = %q, %v", rendered.String(), err)
}
}
func TestFacadeIdentifiedInheritanceFailureDoesNotRevealSecretCanary(t *testing.T) {
const secretName = "CONFIGKIT_IDENTIFIED_INHERITANCE_FAILURE_SECRET"
const canary = "IDENTIFIED-INHERITANCE-FAILURE-CANARY"
t.Setenv(secretName, canary)
type job struct {
ID string `yaml:"id"`
Credential configkit.Secret `yaml:"credential"`
}
type configuration struct {
Jobs []job `yaml:"jobs"`
}
input := []byte(`jobs:
- id: child
extends: {id: missing}
credential: CONFIGKIT_IDENTIFIED_INHERITANCE_FAILURE_SECRET
`)
_, err := configkit.Load(configkit.Bytes("identified-failure.yml", input), configkit.Options[configuration]{
Definition: configkit.Definition[configuration]{
SequenceIdentities: []configkit.SequenceIdentity{configkit.SequenceIdentityAt(configkit.Keys("jobs"), "id")},
Secret: func(path configkit.Path) bool { return path.String() == "/jobs/0/credential" },
},
})
if err == nil || strings.Contains(err.Error(), canary) {
t.Fatalf("identified inheritance failure = %v; secret canary must remain undisclosed", err)
}
}
func TestFacadeLayeredIdentifiedInheritanceUsesSurvivingRecords(t *testing.T) {
policy := func(mode string) string {
return "configkit:\n sequences:\n - destination: [jobs]\n key: id\n mode: " + mode + "\n"
}
tests := []struct {
name string
lower string
higher string
wantCode configkit.Code
wantValue string
wantSuccess bool
}{
{
name: "upserted parent supplies its final payload",
lower: policy("upsert") + "jobs: [{id: parent, value: lower}]\n",
higher: policy("upsert") + "jobs: [{id: parent, value: higher}, {id: child, extends: {id: parent}}]\n",
wantValue: "higher", wantSuccess: true,
},
{
name: "replacement removes a lower parent before lookup",
lower: policy("upsert") + "jobs: [{id: parent, value: lower}]\n",
higher: policy("replace") + "jobs: [{id: child, extends: {id: parent}}]\n",
wantCode: configkit.CodeInheritanceMissing,
},
{
name: "upserted child without a directive replaces the invalid lower child",
lower: policy("upsert") + "jobs: [{id: child, extends: {id: missing}, value: lower}]\n",
higher: policy("upsert") + "jobs: [{id: child, value: higher}]\n",
wantValue: "higher", wantSuccess: true,
},
{
name: "self-reference cannot resolve through a lower predecessor",
lower: policy("upsert") + "jobs: [{id: parent, value: lower}]\n",
higher: policy("upsert") + "jobs: [{id: parent, extends: {id: parent}, value: higher}]\n",
wantCode: configkit.CodeInheritanceCycle,
},
}
for _, test := range tests {
t.Run(test.name, func(t *testing.T) {
result, err := configkit.LoadLayered(configkit.Input{Source: configkit.Bytes("main.yml", []byte(test.higher))}, configkit.LayeredOptions[map[string]any]{
Underlays: []configkit.Underlay{{Inputs: []configkit.Input{{Source: configkit.Bytes("lower.yml", []byte(test.lower))}}}},
})
if test.wantSuccess {
if err != nil {
t.Fatal(err)
}
jobs, ok := result.Config["jobs"].([]any)
if !ok || len(jobs) == 0 {
t.Fatalf("assembled jobs = %#v", result.Config["jobs"])
}
child, ok := jobs[len(jobs)-1].(map[string]any)
if !ok || child["value"] != test.wantValue {
t.Fatalf("surviving record = %#v, want inherited value %q", jobs[len(jobs)-1], test.wantValue)
}
return
}
loadError, ok := err.(*configkit.LoadError)
if !ok {
t.Fatalf("load error = %v, want code %s", err, test.wantCode)
}
for _, diagnostic := range loadError.Diagnostics() {
if diagnostic.Code == test.wantCode {
return
}
}
t.Fatalf("load diagnostics = %#v, want code %s", loadError.Diagnostics(), test.wantCode)
})
}
}
func TestFacadeInheritanceLayeredPrecedenceAndSourceContext(t *testing.T) {
filesystem := configkit.NewFilesystem("bundle", fstest.MapFS{
"config/main.yml": &fstest.MapFile{Data: []byte("entries: {child: {extends: parent}}\n")},
@@ -206,27 +414,24 @@ func TestFacadeInheritanceFailureStopsLaterCallbacks(t *testing.T) {
}
}
func TestFacadeInheritanceResolvesAfterImportsAndCLIReferenceChange(t *testing.T) {
func TestFacadeCLIOverridesCannotChangeInheritanceRelationship(t *testing.T) {
filesystem := configkit.NewFilesystem("bundle", fstest.MapFS{
"main.yml": &fstest.MapFile{Data: []byte("configkit: {imports: [{path: parent.yml}]}\nentries: {child: {extends: first}}\n")},
"parent.yml": &fstest.MapFile{Data: []byte("entries: {first: {count: 1}, second: {count: 2}}\n")},
})
result, err := configkit.Load(filesystem.File("main.yml"), configkit.Options[inheritedConfiguration]{
_, err := configkit.Load(filesystem.File("main.yml"), configkit.Options[inheritedConfiguration]{
Imports: true, Overrides: []configkit.Override{{Path: configkit.Keys("entries", "child", "extends"), Value: "second", Flag: "--extends"}},
})
if err != nil || result.Config.Entries["child"].Count != 2 {
t.Fatalf("import and CLI reference = %#v, %v", result, err)
}
history := result.Metadata().History(configkit.Keys("entries", "child", "extends"))
if len(history) < 3 || history[len(history)-1].Origin.Operation != configkit.ChangeInheritance {
t.Fatalf("superseded reference history = %#v", history)
loadError, ok := err.(*configkit.LoadError)
if !ok || len(loadError.Diagnostics()) == 0 || loadError.Diagnostics()[0].Code != configkit.CodeOverrideDirective {
t.Fatalf("CLI inheritance relationship change = %v", err)
}
conflicting := configkit.NewFilesystem("bundle", fstest.MapFS{
"main.yml": &fstest.MapFile{Data: []byte("configkit: {imports: [{path: parent.yml}]}\nentries: {child: {extends: first}, first: {count: 3}}\n")},
"parent.yml": &fstest.MapFile{Data: []byte("entries: {first: {count: 1}}\n")},
})
_, err = configkit.Load[inheritedConfiguration](conflicting.File("main.yml"), configkit.Options[inheritedConfiguration]{Imports: true})
loadError, ok := err.(*configkit.LoadError)
loadError, ok = err.(*configkit.LoadError)
if !ok || len(loadError.Diagnostics()) == 0 || loadError.Diagnostics()[0].Code != configkit.CodeComposeConflict {
t.Fatalf("strict conflict before expansion = %v", err)
}

View File

@@ -0,0 +1,69 @@
package configkit_test
import (
"fmt"
"testing"
"testing/fstest"
configkit "gitea.maximumdirect.net/eric/ConfigKit"
)
func TestFacadeItemScopesDoNotReinterpretGlobalRegistrations(t *testing.T) {
t.Parallel()
for _, layered := range []bool{false, true} {
for _, dynamic := range []bool{false, true} {
for _, missingOuterID := range []bool{false, true} {
t.Run(fmt.Sprintf("layered=%t/dynamic=%t/missing-outer-id=%t", layered, dynamic, missingOuterID), func(t *testing.T) {
payload := "prompts: [{text: helper}]\n"
unused := configkit.SequenceIdentityAt(configkit.Keys("prompts"), "id")
if dynamic {
payload = "catalog: {local: {prompts: [{text: helper}]}}\n"
unused = configkit.SequenceIdentityMatching(configkit.SequenceSelector{
configkit.SequenceLiteralKey("catalog"), configkit.SequenceAnyMappingKey(), configkit.SequenceLiteralKey("prompts"),
}, "id")
}
item := "configkit: {imports: [{path: helper.yml}, {path: child.yml, destination: [children], placement: sequence-item}]}\n"
if !missingOuterID {
item += "id: outer\n"
}
files := configkit.NewFilesystem("items", fstest.MapFS{
"main.yml": {Data: []byte("configkit: {imports: [{path: item.yml, destination: [items], placement: sequence-item}]}\n")},
"item.yml": {Data: []byte(item)}, "helper.yml": {Data: []byte(payload)},
"child.yml": {Data: []byte("id: child\nconfigkit: {imports: [{path: child-helper.yml}]}\n")},
"child-helper.yml": {Data: []byte(payload)},
})
definition := configkit.Definition[map[string]any]{SequenceIdentities: []configkit.SequenceIdentity{
unused, configkit.SequenceIdentityAt(configkit.Keys("items"), "id"),
}}
var result *configkit.Result[map[string]any]
var err error
if layered {
result, err = configkit.LoadLayered(configkit.Input{Source: files.File("main.yml"), Imports: true}, configkit.LayeredOptions[map[string]any]{Definition: definition})
} else {
result, err = configkit.Load(files.File("main.yml"), configkit.Options[map[string]any]{Imports: true, Definition: definition})
}
if missingOuterID {
failure := requireFacadeLoadError(t, err)
if result != nil || len(failure.Diagnostics()) != 1 || failure.Diagnostics()[0].Code != configkit.CodeComposeInvalid || failure.Diagnostics()[0].Path.String() != "/items/0/id" {
t.Fatalf("outer constraint diagnostics = %#v", failure.Diagnostics())
}
return
}
if err != nil {
t.Fatal(err)
}
for _, record := range []configkit.Path{configkit.Keys("items").Index(0), configkit.Keys("items").Index(0).Key("children").Index(0)} {
path := record
if dynamic {
path = path.Key("catalog").Key("local")
}
info, found := result.Metadata().Lookup(path.Key("prompts").Index(0).Key("text"))
if !found || !info.Explicit {
t.Fatalf("nested helper payload lost at %s", path)
}
}
})
}
}
}
}

View File

@@ -0,0 +1,64 @@
package configkit_test
import (
"testing"
"testing/fstest"
configkit "gitea.maximumdirect.net/eric/ConfigKit"
)
func TestFacadeItemDomainVersionsKeepEffectiveScope(t *testing.T) {
for _, test := range []struct {
name, item, child, helper string
underlay, mainItem bool
}{
{name: "item", item: "id: item\nversion: domain\n"},
{name: "helper", item: "id: item\nconfigkit: {imports: [{path: helper.yml}]}\n", helper: "version: domain\n"},
{name: "nested", item: "id: parent\nconfigkit: {imports: [{path: child.yml, destination: [children], placement: sequence-item}]}\n", child: "id: child\nversion: domain\n"},
{name: "underlay", item: "id: item\nversion: domain\n", underlay: true},
{name: "main-item", item: "id: parent\nconfigkit: {imports: [{path: child.yml, destination: [children], placement: sequence-item}]}\n", child: "id: child\nversion: domain\n", mainItem: true},
} {
t.Run(test.name, func(t *testing.T) {
files := fstest.MapFS{
"main.yml": {Data: []byte("version: 1\nconfigkit: {imports: [{path: item.yml, destination: [items], placement: sequence-item}]}\n")},
"item.yml": {Data: []byte(test.item)},
"child.yml": {Data: []byte(test.child)},
"helper.yml": {Data: []byte(test.helper)},
"underlay.yml": {Data: []byte("configkit: {imports: [{path: item.yml, destination: [items], placement: sequence-item}]}\n")},
}
filesystem := configkit.NewFilesystem("items", files)
definition := configkit.Definition[map[string]any]{Version: &configkit.VersionRule{
Path: configkit.Keys("version"), Check: func(configkit.Version, *configkit.Validation) error { return nil },
}}
var result *configkit.Result[map[string]any]
var err error
switch {
case test.underlay:
result, err = configkit.LoadLayered(configkit.Input{Source: configkit.Mapping("main", map[string]any{"version": "1"})}, configkit.LayeredOptions[map[string]any]{
Definition: definition, Underlays: []configkit.Underlay{{Inputs: []configkit.Input{{Source: filesystem.File("underlay.yml"), Imports: true}}}},
})
case test.mainItem:
result, err = configkit.Load(filesystem.File("item.yml"), configkit.Options[map[string]any]{
Imports: true, Destination: configkit.Keys("items"), PlacementMode: configkit.PlacementModeSequenceItem, Definition: definition,
})
default:
result, err = configkit.Load(filesystem.File("main.yml"), configkit.Options[map[string]any]{Imports: true, Definition: definition})
}
if err != nil {
t.Fatal(err)
}
item := result.Config["items"].([]any)[0].(map[string]any)
fieldPath := configkit.Keys("items").Index(0).Key("version")
if test.child != "" {
item = item["children"].([]any)[0].(map[string]any)
fieldPath = configkit.Keys("items").Index(0).Key("children").Index(0).Key("version")
}
if item["version"] != "domain" {
t.Fatalf("domain version = %#v", item)
}
if info, ok := result.Metadata().Lookup(fieldPath); !ok || !info.Explicit {
t.Fatalf("version metadata = %#v, %v", info, ok)
}
})
}
}

View File

@@ -2,10 +2,12 @@ package configkit_test
import (
"errors"
"fmt"
"io/fs"
"os"
"path"
"path/filepath"
"reflect"
"strings"
"testing"
"testing/fstest"
@@ -219,3 +221,77 @@ func TestFacadeSyntheticSourceContextsAndContextlessSources(t *testing.T) {
t.Fatal("CLI source returned a context")
}
}
func TestFacadeRelativeImportDestinationsPreserveNativeResourceContexts(t *testing.T) {
borrowed := &observedResourceFS{files: fstest.MapFS{
"bundle/config/main.yml": &fstest.MapFile{Data: []byte("configkit:\n imports:\n - path: entries/parent.yml\n destination: [logical]\n")},
"bundle/config/entries/parent.yml": &fstest.MapFile{Data: []byte("configkit:\n imports:\n - path: nested/details.yml\n destination: [details]\nresource: icon.txt\n")},
"bundle/config/entries/nested/details.yml": &fstest.MapFile{Data: []byte("resource: detail.txt\n")},
"bundle/config/entries/icon.txt": &fstest.MapFile{Data: []byte("parent-resource")},
"bundle/config/entries/nested/detail.txt": &fstest.MapFile{Data: []byte("nested-resource")},
}}
namespace := configkit.NewFilesystem("bundle", borrowed)
input := configkit.Input{
Source: namespace.File("bundle/config/main.yml"), Imports: true,
Filesystem: &configkit.FilesystemContext{Root: "bundle", FS: &namespace},
}
load := func() *configkit.Result[map[string]any] {
t.Helper()
result, err := configkit.LoadLayered[map[string]any](input)
if err != nil {
t.Fatalf("load relative native imports: %v", err)
}
return result
}
result := load()
wantDestinations := []string{configkit.Keys().String(), "/logical", "/logical/details"}
wantPaths := []string{"bundle/config/main.yml", "bundle/config/entries/parent.yml", "bundle/config/entries/nested/details.yml"}
sources := result.Sources()
if len(sources) != len(wantPaths) {
t.Fatalf("sources = %#v", sources)
}
for index, source := range sources {
if source.ID != fmt.Sprintf("source-%d", index+1) || source.Kind != configkit.SourceKindFilesystem || source.Path != wantPaths[index] || source.Destination.String() != wantDestinations[index] {
t.Errorf("source %d = %#v", index, source)
}
if index == 0 {
if source.ImportedFrom != nil {
t.Errorf("entry source has import location %#v", source.ImportedFrom)
}
} else if source.ImportedFrom == nil || source.ImportedFrom.SourceID != fmt.Sprintf("source-%d", index) || source.ImportedFrom.Line == 0 || source.ImportedFrom.Column == 0 {
t.Errorf("source %d import location = %#v", index, source.ImportedFrom)
}
}
for _, test := range []struct {
field, effectivePath, wantBase, wantResource, wantContents string
}{
{"parent resource", "/logical/resource", "config/entries", "icon.txt", "parent-resource"},
{"nested resource", "/logical/details/resource", "config/entries/nested", "detail.txt", "nested-resource"},
} {
info, ok := result.Metadata().Lookup(configkit.Keys(strings.Split(strings.Trim(test.effectivePath, "/"), "/")...))
if !ok || len(info.Origin.Locations) != 1 {
t.Fatalf("%s origin = %#v, %v", test.field, info, ok)
}
context, ok := result.SourceContext(info.Origin.Locations[0].SourceID)
if !ok || context.BaseDir != test.wantBase || context.FS == nil {
t.Fatalf("%s context = %#v, %v", test.field, context, ok)
}
contents, err := fs.ReadFile(context.FS, path.Join(context.BaseDir, test.wantResource))
if err != nil || string(contents) != test.wantContents {
t.Fatalf("%s opened resource = %q, %v", test.field, contents, err)
}
}
sources[1].Destination = configkit.Keys("caller", "mutation")
for query := 0; query < 2; query++ {
fresh := result.Sources()
if fresh[1].Destination.String() != "/logical" {
t.Fatalf("query %d source destination = %q", query, fresh[1].Destination.String())
}
}
second := load()
if !reflect.DeepEqual(second.Sources(), result.Sources()) {
t.Fatalf("independent source records differ: %#v vs %#v", second.Sources(), result.Sources())
}
}

View File

@@ -0,0 +1,240 @@
package configkit_test
import (
"errors"
"strings"
"testing"
configkit "gitea.maximumdirect.net/eric/ConfigKit"
)
func TestFacadeSequenceIdentitySnapshotsSelectorsAndFields(t *testing.T) {
fields := []string{"namespace", "id", "id"}
selector := configkit.SequenceSelector{
configkit.SequenceLiteralKey("collections"),
configkit.SequenceAnyMappingKey(),
configkit.SequenceLiteralKey("prompts"),
}
identity := configkit.SequenceIdentityMatching(selector, fields...)
selector[1] = configkit.SequenceLiteralKey("other")
fields[0] = "changed"
definition := configkit.Definition[map[string]any]{SequenceIdentities: []configkit.SequenceIdentity{identity}}
underlay := configkit.Mapping("underlay", map[string]any{"collections": map[string]any{
"team": map[string]any{"prompts": []any{map[string]any{"namespace": "team", "id": "kept"}}},
}})
main := configkit.Mapping("main", map[string]any{"collections": map[string]any{
"team": map[string]any{"prompts": []any{map[string]any{"namespace": "team", "id": "added"}}},
}})
loaded, err := configkit.LoadLayered(configkit.Input{Source: main}, configkit.LayeredOptions[map[string]any]{
Definition: definition,
Underlays: []configkit.Underlay{{Inputs: []configkit.Input{{Source: underlay}}}},
})
if err != nil {
t.Fatalf("load after mutating constructor inputs: %v", err)
}
prompts := loaded.Config["collections"].(map[string]any)["team"].(map[string]any)["prompts"].([]any)
if len(prompts) != 2 {
t.Fatalf("registered compound identity did not append records: %#v", prompts)
}
}
func TestFacadeSequenceIdentityUsesExactAndDynamicSelectors(t *testing.T) {
dynamic := configkit.SequenceIdentityMatching(configkit.SequenceSelector{
configkit.SequenceLiteralKey("collections"),
configkit.SequenceAnyMappingKey(),
configkit.SequenceLiteralKey("prompts"),
}, "id")
definition := configkit.Definition[map[string]any]{SequenceIdentities: []configkit.SequenceIdentity{
configkit.SequenceIdentityAt(configkit.Keys("prompts"), "namespace", "id"),
dynamic,
}}
underlay := configkit.Mapping("underlay", map[string]any{
"prompts": []any{map[string]any{"namespace": "alpha", "id": "same"}},
"collections": map[string]any{
"team": map[string]any{"prompts": []any{map[string]any{"id": "team-one"}}},
"cloud": map[string]any{"prompts": []any{map[string]any{"id": "cloud-one"}}},
},
})
main := configkit.Mapping("main", map[string]any{
"prompts": []any{map[string]any{"namespace": "beta", "id": "same"}},
"collections": map[string]any{
"team": map[string]any{"prompts": []any{map[string]any{"id": "team-two"}}},
"cloud": map[string]any{"prompts": []any{map[string]any{"id": "cloud-two"}}},
},
})
loaded, err := configkit.LoadLayered(configkit.Input{Source: main}, configkit.LayeredOptions[map[string]any]{
Definition: definition,
Underlays: []configkit.Underlay{{Inputs: []configkit.Input{{Source: underlay}}}},
})
if err != nil {
t.Fatalf("load mixed exact and dynamic registrations: %v", err)
}
rootRecords := loaded.Config["prompts"].([]any)
if len(rootRecords) != 2 {
t.Fatalf("compound root identities = %#v", rootRecords)
}
collections := loaded.Config["collections"].(map[string]any)
for _, name := range []string{"team", "cloud"} {
prompts := collections[name].(map[string]any)["prompts"].([]any)
if len(prompts) != 2 {
t.Errorf("dynamic prompts for %q = %#v", name, prompts)
}
}
}
func TestFacadeSequenceIdentityLiteralStarIsNotWildcard(t *testing.T) {
definition := configkit.Definition[map[string]any]{SequenceIdentities: []configkit.SequenceIdentity{
configkit.SequenceIdentityMatching(configkit.SequenceSelector{
configkit.SequenceLiteralKey("collections"),
configkit.SequenceLiteralKey("*"),
configkit.SequenceLiteralKey("prompts"),
}, "id"),
}}
underlay := configkit.Mapping("underlay", map[string]any{"collections": map[string]any{
"*": map[string]any{"prompts": []any{map[string]any{"id": "one"}}},
"team": map[string]any{"prompts": []any{map[string]any{"id": "team-one"}}},
}})
main := configkit.Mapping("main", map[string]any{"collections": map[string]any{
"*": map[string]any{"prompts": []any{map[string]any{"id": "two"}}},
"team": map[string]any{"prompts": []any{map[string]any{"id": "team-two"}}},
}})
_, err := configkit.LoadLayered(configkit.Input{Source: configkit.Mapping("main", map[string]any{})}, configkit.LayeredOptions[map[string]any]{
Definition: definition,
Underlays: []configkit.Underlay{{Inputs: []configkit.Input{{Source: underlay}, {Source: main}}}},
})
loadErr := requireFacadeLoadError(t, err)
if len(loadErr.Diagnostics()) == 0 || loadErr.Diagnostics()[0].Path.String() != "/collections/team/prompts" {
t.Fatalf("literal star registration also matched another key: %#v", loadErr.Diagnostics())
}
wildcard := configkit.Definition[map[string]any]{SequenceIdentities: []configkit.SequenceIdentity{
configkit.SequenceIdentityMatching(configkit.SequenceSelector{
configkit.SequenceLiteralKey("collections"),
configkit.SequenceAnyMappingKey(),
configkit.SequenceLiteralKey("prompts"),
}, "id"),
}}
loaded, err := configkit.LoadLayered(configkit.Input{Source: configkit.Mapping("main", map[string]any{})}, configkit.LayeredOptions[map[string]any]{
Definition: wildcard,
Underlays: []configkit.Underlay{{Inputs: []configkit.Input{{Source: underlay}, {Source: main}}}},
})
if err != nil {
t.Fatalf("wildcard registration did not match mapping keys: %v", err)
}
for name, raw := range loaded.Config["collections"].(map[string]any) {
if got := len(raw.(map[string]any)["prompts"].([]any)); got != 2 {
t.Errorf("wildcard result for %q has %d records", name, got)
}
}
}
func TestFacadeSequenceIdentityRejectsInvalidDefinitionsBeforeReadingSource(t *testing.T) {
tests := []struct {
name string
identity configkit.SequenceIdentity
wantPath string
}{
{
name: "index path",
identity: configkit.SequenceIdentityAt(configkit.Keys("records").Index(0), "id"),
wantPath: "/records/0",
},
{
name: "empty fields",
identity: configkit.SequenceIdentityAt(configkit.Keys("records")),
wantPath: "/records",
},
}
for _, test := range tests {
t.Run(test.name, func(t *testing.T) {
reader := strings.NewReader("records: []\n")
_, err := configkit.Load(configkit.Reader("input.yml", reader), configkit.Options[map[string]any]{
Definition: configkit.Definition[map[string]any]{SequenceIdentities: []configkit.SequenceIdentity{test.identity}},
})
loadErr := requireFacadeLoadError(t, err)
if len(loadErr.Diagnostics()) != 1 || loadErr.Diagnostics()[0].Code != configkit.CodeOptionsInvalid || loadErr.Diagnostics()[0].Path.String() != test.wantPath {
t.Fatalf("definition diagnostics = %#v", loadErr.Diagnostics())
}
if reader.Len() == 0 {
t.Fatal("source was read before registration validation")
}
})
}
}
func TestFacadeSequenceIdentityOverlapFailsBeforeSourceAccess(t *testing.T) {
selector := configkit.SequenceSelector{configkit.SequenceLiteralKey("collections"), configkit.SequenceAnyMappingKey()}
definition := configkit.Definition[map[string]any]{SequenceIdentities: []configkit.SequenceIdentity{
configkit.SequenceIdentityMatching(selector, "id"),
configkit.SequenceIdentityMatching(configkit.SequenceSelector{
configkit.SequenceLiteralKey("collections"), configkit.SequenceLiteralKey("team"),
}, "slug"),
}}
reader := strings.NewReader("collections: {}\n")
_, err := configkit.Load(configkit.Reader("input.yml", reader), configkit.Options[map[string]any]{Definition: definition})
loadErr := requireFacadeLoadError(t, err)
if len(loadErr.Diagnostics()) == 0 || loadErr.Diagnostics()[0].Code != configkit.CodeOptionsInvalid {
t.Fatalf("overlap diagnostics = %#v", loadErr.Diagnostics())
}
if reader.Len() == 0 {
t.Fatal("source was read before overlapping registrations were rejected")
}
}
func TestFacadeSequenceIdentityConstraintsApplyAtInheritedDestinations(t *testing.T) {
definition := configkit.Definition[map[string]any]{SequenceIdentities: []configkit.SequenceIdentity{
configkit.SequenceIdentityMatching(configkit.SequenceSelector{
configkit.SequenceLiteralKey("entries"),
configkit.SequenceLiteralKey("child"),
configkit.SequenceLiteralKey("collections"),
configkit.SequenceAnyMappingKey(),
configkit.SequenceLiteralKey("prompts"),
}, "id"),
}}
loaded, err := configkit.Load(configkit.Bytes("main", []byte(`jobs:
entries:
parent:
collections:
team:
prompts: [{id: inherited, text: base}]
child:
extends: parent
collections:
team:
prompts: [{id: added, text: child}]
`)), configkit.Options[map[string]any]{Definition: definition})
if err != nil {
t.Fatalf("load with dynamic inherited destination: %v", err)
}
child := loaded.Config["entries"].(map[string]any)["child"].(map[string]any)
prompts := child["collections"].(map[string]any)["team"].(map[string]any)["prompts"].([]any)
if len(prompts) != 2 {
t.Fatalf("inherited dynamic collection = %#v, want parent and child records", prompts)
}
}
func TestFacadeSequenceIdentityLoadsUseIndependentScopes(t *testing.T) {
definition := configkit.Definition[map[string]any]{SequenceIdentities: []configkit.SequenceIdentity{
configkit.SequenceIdentityMatching(configkit.SequenceSelector{
configkit.SequenceLiteralKey("collections"), configkit.SequenceAnyMappingKey(),
}, "id"),
}}
for _, source := range []string{"first", "second"} {
loaded, err := configkit.Load(configkit.Mapping(source, map[string]any{"collections": map[string]any{
source: []any{map[string]any{"id": "reused"}},
}}), configkit.Options[map[string]any]{Definition: definition})
if err != nil || len(loaded.Config["collections"].(map[string]any)[source].([]any)) != 1 {
t.Fatalf("independent load %q = %#v, %v", source, loaded, err)
}
}
}
func requireFacadeLoadError(t *testing.T, err error) *configkit.LoadError {
t.Helper()
var loadErr *configkit.LoadError
if !errors.As(err, &loadErr) {
t.Fatalf("error = %v, want *LoadError", err)
}
return loadErr
}

699
facade_sequence_test.go Normal file
View File

@@ -0,0 +1,699 @@
package configkit_test
import (
"bytes"
"os"
"path/filepath"
"reflect"
"strings"
"testing"
"testing/fstest"
configkit "gitea.maximumdirect.net/eric/ConfigKit"
)
func TestFacadeNoSourcePreservesAbsenceWithSequencePolicy(t *testing.T) {
t.Parallel()
for _, defaults := range []bool{false, true} {
for _, registered := range []bool{false, true} {
definition := configkit.Definition[map[string]any]{}
if defaults {
definition.Defaults = func() map[string]any { return map[string]any{"fallback": true} }
}
if registered {
definition.SequenceIdentities = []configkit.SequenceIdentity{configkit.SequenceIdentityAt(configkit.Keys("records"), "id")}
}
ordinary, err := configkit.Load(configkit.NoSource(), configkit.Options[map[string]any]{Definition: definition})
if err != nil {
t.Fatal(err)
}
layered, err := configkit.LoadLayered[map[string]any](configkit.Input{Source: configkit.NoSource()}, configkit.LayeredOptions[map[string]any]{Definition: definition})
if err != nil {
t.Fatal(err)
}
if !reflect.DeepEqual(ordinary.Config, layered.Config) {
t.Fatal("NoSource values differ between entry points")
}
for _, result := range []*configkit.Result[map[string]any]{ordinary, layered} {
if len(result.Sources()) != 0 || result.Metadata().IsExplicit(configkit.Keys()) {
t.Fatal("NoSource contributed an explicit root")
}
info, ok := result.Metadata().Lookup(configkit.Keys())
if !ok || info.Origin.Layer != configkit.LayerDefault {
t.Fatalf("NoSource root origin = %#v, %t", info, ok)
}
}
empty, err := configkit.Load(configkit.Mapping("empty", map[string]any{}), configkit.Options[map[string]any]{Definition: definition})
if err != nil || !empty.Metadata().IsExplicit(configkit.Keys()) {
t.Fatal("real empty mapping lost its presence")
}
}
}
}
func TestFacadeItemHelperHistoryPreservesScheduledPlacement(t *testing.T) {
t.Parallel()
filesystem := configkit.NewFilesystem("history", fstest.MapFS{
"main.yml": {Data: []byte("records: [{id: authored}]\nconfigkit: {imports: [{path: one.yml, destination: [records], placement: sequence-item}, {path: two.yml, destination: [records], placement: sequence-item}]}\n")},
"one.yml": {Data: []byte("id: one\nconfigkit: {imports: [{path: helper-one.yml}, {path: child.yml, destination: [children], placement: sequence-item}]}\n")},
"two.yml": {Data: []byte("id: two\nconfigkit: {imports: [{path: helper-two.yml}]}\n")},
"helper-one.yml": {Data: []byte("text: first helper\n")},
"helper-two.yml": {Data: []byte("text: second helper\n")},
"child.yml": {Data: []byte("id: child\nconfigkit: {imports: [{path: child-helper.yml}]}\n")},
"child-helper.yml": {Data: []byte("text: nested helper\n")},
})
result, err := configkit.Load(filesystem.File("main.yml"), configkit.Options[map[string]any]{
Imports: true, Definition: configkit.Definition[map[string]any]{SequenceIdentities: []configkit.SequenceIdentity{configkit.SequenceIdentityAt(configkit.Keys("records"), "id")}},
})
if err != nil {
t.Fatal(err)
}
sourceFiles := make(map[string]string)
for _, source := range result.Sources() {
sourceFiles[source.ID] = source.Path
}
for _, test := range []struct {
path configkit.Path
file, text string
}{
{configkit.Keys("records").Index(0).Key("text"), "helper-one.yml", "first helper\n"},
{configkit.Keys("records").Index(1).Key("text"), "helper-two.yml", "second helper\n"},
{configkit.Keys("records").Index(0).Key("children").Index(0).Key("text"), "child-helper.yml", "nested helper\n"},
} {
explanation, ok := result.Explain(test.path)
if !ok || explanation.Effective.YAML != test.text || len(explanation.History) != 1 {
t.Fatalf("helper history at %s = %#v", test.path.String(), explanation)
}
locations := explanation.History[0].Origin.Locations
if len(locations) != 1 || sourceFiles[locations[0].SourceID] != test.file {
t.Fatalf("helper origin at %s = %#v", test.path.String(), locations)
}
info, ok := result.Metadata().Lookup(test.path)
if !ok || len(info.Origin.Locations) != 1 || info.Origin.Locations[0].SourceID != locations[0].SourceID {
t.Fatal("metadata and explanation disagree")
}
}
}
func TestFacadeRegisteredReplacementExplainsRemovedDescendants(t *testing.T) {
t.Parallel()
for _, test := range []struct {
name string
upper []any
path configkit.Path
}{
{"shorter", []any{map[string]any{"id": "main"}}, configkit.Keys("records").Index(1).Key("id")},
{"empty", []any{}, configkit.Keys("records").Index(0).Key("id")},
{"removed field", []any{map[string]any{"id": "main"}}, configkit.Keys("records").Index(0).Key("text")},
} {
t.Run(test.name, func(t *testing.T) {
mainYAML := "configkit:\n sequences:\n - destination: [records]\n key: id\n mode: replace\n"
if len(test.upper) == 0 {
mainYAML += "records: []\n"
} else {
mainYAML += "records: [{id: main}]\n"
}
result, err := configkit.LoadLayered[map[string]any](configkit.Input{Source: configkit.Bytes("main", []byte(mainYAML))}, configkit.LayeredOptions[map[string]any]{
Definition: configkit.Definition[map[string]any]{SequenceIdentities: []configkit.SequenceIdentity{configkit.SequenceIdentityAt(configkit.Keys("records"), "id")}},
Underlays: []configkit.Underlay{{Inputs: []configkit.Input{{Source: configkit.Mapping("lower", map[string]any{"records": []any{map[string]any{"id": "one", "text": "old"}, map[string]any{"id": "two"}}})}}}},
})
if err != nil {
t.Fatal(err)
}
explanation, ok := result.Explain(test.path)
if !ok || explanation.Effective.Present || len(explanation.History) < 2 {
t.Fatalf("removal not explained: %#v", explanation)
}
last := explanation.History[len(explanation.History)-1]
if !last.Before.Present || last.After.Present || last.Origin.Layer != configkit.LayerBase || len(last.Origin.Locations) != 1 || last.Origin.Locations[0].SourceID != result.Sources()[0].ID {
t.Fatalf("wrong removal transition/origin: %#v", last)
}
})
}
}
func TestFacadeItemConflictDiagnosticsFollowEnclosingIndexes(t *testing.T) {
t.Parallel()
filesystem := configkit.NewFilesystem("conflicts", fstest.MapFS{
"main.yml": {Data: []byte("records: [{id: authored}]\nconfigkit: {imports: [{path: good.yml, destination: [records], placement: sequence-item}, {path: bad.yml, destination: [records], placement: sequence-item}]}\n")},
"group.yml": {Data: []byte("records: [{id: authored}]\nconfigkit: {imports: [{path: bad.yml, destination: [records], placement: sequence-item}]}\n")},
"nested.yml": {Data: []byte("records: [{id: authored}]\nconfigkit: {imports: [{path: parent.yml, destination: [records], placement: sequence-item}]}\n")},
"parent.yml": {Data: []byte("id: parent\nchildren: [{id: authored-child}]\nconfigkit: {imports: [{path: bad.yml, destination: [children], placement: sequence-item}]}\n")},
"good.yml": {Data: []byte("id: good\n")},
"bad.yml": {Data: []byte("id: bad\nconfigkit: {imports: [{path: helper.yml}]}\n")},
"helper.yml": {Data: []byte("id: duplicate-field\n")},
})
definition := configkit.Definition[map[string]any]{SequenceIdentities: []configkit.SequenceIdentity{configkit.SequenceIdentityAt(configkit.Keys("records"), "id")}}
for _, test := range []struct {
name, file, path string
grouped, itemMain bool
}{
{"preceding authored and imported items", "main.yml", "/records/0/id", false, false},
{"nested item", "nested.yml", "/records/0/children/0/id", false, false},
{"preceding grouped input", "group.yml", "/records/1/id", true, false},
{"item main source", "bad.yml", "/records/0/id", false, true},
{"grouped item source", "bad.yml", "/records/1/id", true, true},
} {
t.Run(test.name, func(t *testing.T) {
var err error
input := configkit.Input{Source: filesystem.File(test.file), Imports: true}
if test.itemMain {
input.Destination = configkit.Keys("records")
input.PlacementMode = configkit.PlacementModeSequenceItem
}
if test.grouped {
_, err = configkit.LoadLayered[map[string]any](configkit.Input{Source: configkit.NoSource()}, configkit.LayeredOptions[map[string]any]{
Definition: definition, Underlays: []configkit.Underlay{{Inputs: []configkit.Input{
{Source: configkit.Mapping("prior", map[string]any{"records": []any{map[string]any{"id": "prior"}}})},
input,
}}},
})
} else {
_, err = configkit.Load(input.Source, configkit.Options[map[string]any]{Definition: definition, Imports: true, Destination: input.Destination, PlacementMode: input.PlacementMode})
}
loadError, ok := err.(*configkit.LoadError)
if !ok || len(loadError.Diagnostics()) != 1 {
t.Fatalf("expected helper conflict: %v", err)
}
diagnostic := loadError.Diagnostics()[0]
if diagnostic.Code != configkit.CodeComposeConflict || diagnostic.Path.String() != test.path {
t.Fatalf("diagnostic = %s %s, want %s", diagnostic.Code, diagnostic.Path.String(), test.path)
}
files := make(map[string]string)
for _, source := range loadError.Sources() {
files[source.ID] = source.Path
}
locations := append([]configkit.Location(nil), diagnostic.Related...)
if diagnostic.Primary != nil {
locations = append(locations, *diagnostic.Primary)
}
gotFiles := make(map[string]bool, len(locations))
for _, location := range locations {
gotFiles[files[location.SourceID]] = location.Line == 1 && location.Column == 5
}
if len(locations) != 2 || !gotFiles["bad.yml"] || !gotFiles["helper.yml"] {
t.Fatalf("conflict lost physical source locations: diagnostic=%#v sources=%#v", diagnostic, files)
}
})
}
}
func TestFacadeSequencePlacementControlsAcrossLoadEntryPoints(t *testing.T) {
definition := configkit.Definition[map[string]any]{
SequenceIdentities: []configkit.SequenceIdentity{configkit.SequenceIdentityAt(configkit.Keys("entries"), "id")},
}
ordinary, err := configkit.Load(configkit.Mapping("ordinary", map[string]any{"id": "one"}), configkit.Options[map[string]any]{
Definition: definition, Destination: configkit.Keys("entries"), PlacementMode: configkit.PlacementModeSequenceItem,
})
if err != nil {
t.Fatalf("ordinary item load: %v", err)
}
if got := ordinary.Config["entries"].([]any); len(got) != 1 || got[0].(map[string]any)["id"] != "one" {
t.Fatalf("ordinary item placement = %#v", ordinary.Config)
}
if sources := ordinary.Sources(); len(sources) != 1 || sources[0].PlacementMode != configkit.PlacementModeSequenceItem || sources[0].Destination.String() != "/entries" || sources[0].DestinationUnresolved {
t.Fatalf("ordinary item source = %#v", sources)
}
layered, err := configkit.LoadLayered[map[string]any](configkit.Input{Source: configkit.NoSource()}, configkit.LayeredOptions[map[string]any]{
Definition: definition,
Underlays: []configkit.Underlay{{Inputs: []configkit.Input{
{Source: configkit.Mapping("first", map[string]any{"id": "first"}), Destination: configkit.Keys("entries"), PlacementMode: configkit.PlacementModeSequenceItem},
{Source: configkit.Mapping("second", map[string]any{"id": "second"}), Destination: configkit.Keys("entries"), PlacementMode: configkit.PlacementModeSequenceItem},
}}},
})
if err != nil {
t.Fatalf("layered item load: %v", err)
}
items := layered.Config["entries"].([]any)
if len(items) != 2 || items[0].(map[string]any)["id"] != "first" || items[1].(map[string]any)["id"] != "second" {
t.Fatalf("layered item placement = %#v", layered.Config)
}
for _, source := range layered.Sources() {
if source.PlacementMode != configkit.PlacementModeSequenceItem || source.Destination.String() != "/entries" || source.DestinationUnresolved {
t.Errorf("layered item source = %#v", source)
}
}
precedence, err := configkit.LoadLayered[map[string]any](configkit.Input{Source: configkit.Mapping("main", map[string]any{
"entries": []any{map[string]any{"id": "main"}},
})}, configkit.LayeredOptions[map[string]any]{
Definition: definition,
Underlays: []configkit.Underlay{{Inputs: []configkit.Input{{
Source: configkit.Mapping("lower", map[string]any{"id": "lower"}), Destination: configkit.Keys("entries"), PlacementMode: configkit.PlacementModeSequenceItem,
}}}},
})
if err != nil {
t.Fatalf("registered sequence precedence load: %v", err)
}
if got := precedence.Config["entries"].([]any); len(got) != 2 || got[0].(map[string]any)["id"] != "lower" || got[1].(map[string]any)["id"] != "main" {
t.Fatalf("registered upsert did not retain the lower sequence: %#v", precedence.Config)
}
for _, test := range []struct {
name string
load func(configkit.Source) error
}{
{name: "ordinary", load: func(source configkit.Source) error {
_, loadErr := configkit.Load(source, configkit.Options[map[string]any]{PlacementMode: configkit.PlacementMode(9)})
return loadErr
}},
{name: "layered", load: func(source configkit.Source) error {
_, loadErr := configkit.LoadLayered[map[string]any](configkit.Input{Source: source, PlacementMode: configkit.PlacementMode(9)})
return loadErr
}},
} {
t.Run(test.name, func(t *testing.T) {
reader := &destinationCountingReader{}
err := test.load(configkit.Reader("unread", reader))
loadError, ok := err.(*configkit.LoadError)
if !ok || len(loadError.Diagnostics()) == 0 || loadError.Diagnostics()[0].Code != configkit.CodeOptionsInvalid || reader.reads != 0 {
t.Fatalf("invalid placement result = %v, reads = %d", err, reader.reads)
}
})
}
}
func TestFacadeItemImportGlobComposesWithAuthoredSequence(t *testing.T) {
directory := t.TempDir()
mainPath := filepath.Join(directory, "main.yml")
if err := os.WriteFile(mainPath, []byte(`configkit:
imports:
- glob: records/*.yml
destination: [items]
placement: sequence-item
items:
- id: authored
name: authored item
`), 0o600); err != nil {
t.Fatal(err)
}
for name, id := range map[string]string{"b.yml": "imported-b", "a.yml": "imported-a"} {
if err := os.MkdirAll(filepath.Join(directory, "records"), 0o755); err != nil {
t.Fatal(err)
}
if err := os.WriteFile(filepath.Join(directory, "records", name), []byte("id: "+id+"\n"), 0o600); err != nil {
t.Fatal(err)
}
}
var callbackSources []configkit.SourceInfo
var callbackContexts []configkit.ResourceContext
result, err := configkit.Load(configkit.File(mainPath), configkit.Options[map[string]any]{
Imports: true,
Definition: configkit.Definition[map[string]any]{
SequenceIdentities: []configkit.SequenceIdentity{configkit.SequenceIdentityAt(configkit.Keys("items"), "id")},
Resolve: func(_ *map[string]any, resolution *configkit.Resolution) error {
for _, id := range []string{"source-2", "source-3"} {
source, ok := resolution.Source(id)
if !ok {
t.Errorf("resolver could not query %s", id)
continue
}
context, found := resolution.SourceContext(id)
if !found || context.FS == nil || context.BaseDir != "records" {
t.Errorf("resolver context for %s = %#v, %v", id, context, found)
}
callbackSources = append(callbackSources, source)
callbackContexts = append(callbackContexts, context)
}
return nil
},
},
})
if err != nil {
t.Fatalf("load item glob: %v", err)
}
items := result.Config["items"].([]any)
wantIDs := []string{"imported-a", "imported-b", "authored"}
for index, item := range items {
if got := item.(map[string]any)["id"]; got != wantIDs[index] {
t.Errorf("item %d ID = %#v, want %q", index, got, wantIDs[index])
}
}
if len(callbackSources) != 2 || len(callbackContexts) != 2 {
t.Fatalf("callback snapshots = %#v, contexts %#v", callbackSources, callbackContexts)
}
for index, source := range callbackSources {
if source.PlacementMode != configkit.PlacementModeSequenceItem || source.Destination.String() != "/items" || source.DestinationUnresolved {
t.Errorf("callback source = %#v", source)
}
if callbackContexts[index].FS == nil || callbackContexts[index].BaseDir != "records" {
t.Errorf("callback context = %#v", callbackContexts[index])
}
}
metadata := result.Metadata()
for index := 0; index < 2; index++ {
path := configkit.Keys("items").Index(index).Key("id")
info, ok := metadata.Lookup(path)
if !ok || !info.Explicit || len(info.Origin.Locations) != 1 || info.Origin.Locations[0].SourceID != []string{"source-2", "source-3"}[index] {
t.Errorf("shifted item origin at %s = %#v, %v", path.String(), info, ok)
}
}
if got := result.Sources(); len(got) != 3 || got[1].Destination.String() != "/items" || got[1].DestinationUnresolved {
t.Fatalf("final item sources = %#v", got)
}
}
func TestFacadeItemDestinationFallbackEvidenceSurvivesFailures(t *testing.T) {
directory := t.TempDir()
mainPath := filepath.Join(directory, "main.yml")
helperPath := filepath.Join(directory, "helper.yml")
if err := os.WriteFile(mainPath, []byte("configkit: {imports: [{path: helper.yml, destination: [metadata]}]}\nid: main\n"), 0o600); err != nil {
t.Fatal(err)
}
if err := os.WriteFile(helperPath, []byte("value: [unterminated\n"), 0o600); err != nil {
t.Fatal(err)
}
_, err := configkit.Load(configkit.File(mainPath), configkit.Options[map[string]any]{
Imports: true, Destination: configkit.Keys("items"), PlacementMode: configkit.PlacementModeSequenceItem,
})
loadError, ok := err.(*configkit.LoadError)
if !ok {
t.Fatalf("early failure = %v", err)
}
sources := loadError.Sources()
if len(sources) != 2 || sources[0].Destination.String() != "/items" || sources[0].DestinationUnresolved ||
sources[0].PlacementMode != configkit.PlacementModeSequenceItem ||
sources[1].Destination.String() != "/items" || !sources[1].DestinationUnresolved ||
sources[1].PlacementMode != configkit.PlacementModeMapping {
t.Fatalf("early source snapshots = %#v", sources)
}
if err := os.WriteFile(helperPath, []byte("value: invalid-for-typed-schema\n"), 0o600); err != nil {
t.Fatal(err)
}
type item struct {
ID string `yaml:"id"`
Metadata struct {
Value int `yaml:"value"`
} `yaml:"metadata"`
}
type configuration struct {
Items []item `yaml:"items"`
}
_, err = configkit.Load(configkit.File(mainPath), configkit.Options[configuration]{
Imports: true, Destination: configkit.Keys("items"), PlacementMode: configkit.PlacementModeSequenceItem,
})
loadError, ok = err.(*configkit.LoadError)
if !ok {
t.Fatalf("post-placement failure = %v", err)
}
sources = loadError.Sources()
if len(sources) != 2 || sources[0].Destination.String() != "/items" || sources[0].DestinationUnresolved ||
sources[1].Destination.String() != "/items/0/metadata" || sources[1].DestinationUnresolved {
t.Fatalf("post-placement source snapshots = %#v", sources)
}
firstSnapshot := sources[1]
sources[1].Destination = configkit.Keys("mutated")
if again := loadError.Sources(); len(again) != 2 || again[1].Destination.String() != firstSnapshot.Destination.String() || again[1].DestinationUnresolved {
t.Fatalf("failure source snapshots were aliased: %#v", again)
}
var callback configkit.SourceInfo
_, err = configkit.Load(configkit.File(mainPath), configkit.Options[map[string]any]{
Imports: true, Destination: configkit.Keys("items"), PlacementMode: configkit.PlacementModeSequenceItem,
Definition: configkit.Definition[map[string]any]{Resolve: func(_ *map[string]any, resolution *configkit.Resolution) error {
callback, _ = resolution.Source("source-2")
return nil
}},
})
if err != nil {
t.Fatalf("successful item load: %v", err)
}
if callback.Destination.String() != "/items/0/metadata" || callback.DestinationUnresolved || callback.PlacementMode != configkit.PlacementModeMapping {
t.Fatalf("callback source snapshot = %#v", callback)
}
}
func TestFacadeNestedItemFallbackUsesNearestResolvedContainer(t *testing.T) {
directory := t.TempDir()
mainPath := filepath.Join(directory, "main.yml")
childPath := filepath.Join(directory, "child.yml")
helperPath := filepath.Join(directory, "helper.yml")
if err := os.WriteFile(mainPath, []byte("configkit: {imports: [{path: child.yml, destination: [children], placement: sequence-item}]}\nid: parent\n"), 0o600); err != nil {
t.Fatal(err)
}
if err := os.WriteFile(childPath, []byte("configkit: {imports: [{path: helper.yml, destination: [metadata]}]}\nid: child\n"), 0o600); err != nil {
t.Fatal(err)
}
if err := os.WriteFile(helperPath, []byte("value: [unterminated\n"), 0o600); err != nil {
t.Fatal(err)
}
_, err := configkit.Load(configkit.File(mainPath), configkit.Options[map[string]any]{
Imports: true, Destination: configkit.Keys("groups"), PlacementMode: configkit.PlacementModeSequenceItem,
})
loadError, ok := err.(*configkit.LoadError)
if !ok {
t.Fatalf("nested acquisition failure = %v", err)
}
sources := loadError.Sources()
if len(sources) != 3 {
t.Fatalf("nested source snapshots = %#v", sources)
}
if got := sources[0]; got.Destination.String() != "/groups" || got.DestinationUnresolved || got.PlacementMode != configkit.PlacementModeSequenceItem {
t.Errorf("outer item snapshot = %#v", got)
}
if got := sources[1]; got.Destination.String() != "/groups" || !got.DestinationUnresolved || got.PlacementMode != configkit.PlacementModeSequenceItem {
t.Errorf("nested item fallback = %#v", got)
}
if got := sources[2]; got.Destination.String() != "/groups" || !got.DestinationUnresolved || got.PlacementMode != configkit.PlacementModeMapping {
t.Errorf("nested helper fallback = %#v", got)
}
}
func TestFacadeSequenceIdentityRegistrationIsDetached(t *testing.T) {
fields := []string{"id"}
path := configkit.Keys("records")
registration := configkit.SequenceIdentityAt(path, fields...)
fields[0] = "changed"
definition := configkit.Definition[map[string]any]{
SequenceIdentities: []configkit.SequenceIdentity{registration},
Version: &configkit.VersionRule{
Path: configkit.Keys("version"),
Check: func(configkit.Version, *configkit.Validation) error {
path = configkit.Keys("other")
return nil
},
},
}
_, err := configkit.Load(configkit.Mapping("registration", map[string]any{
"version": "1",
"records": []any{map[string]any{"id": "same"}, map[string]any{"id": "same"}},
}), configkit.Options[map[string]any]{
Definition: definition, SourceVersionMode: configkit.SourceVersionModeIfPresent,
})
loadError, ok := err.(*configkit.LoadError)
if !ok {
t.Fatalf("duplicate registered identity = %v", err)
}
for _, diagnostic := range loadError.Diagnostics() {
if diagnostic.Code == configkit.CodeComposeConflict {
return
}
}
t.Fatalf("registration mutation changed the in-flight policy: %#v", loadError.Diagnostics())
}
func TestFacadeSourceInfoPlacementCopiesAndZeroValues(t *testing.T) {
zero := configkit.SourceInfo{}
if zero.PlacementMode != configkit.PlacementModeMapping || zero.DestinationUnresolved {
t.Fatalf("zero source info = %#v", zero)
}
loaded, err := configkit.Load[map[string]any](configkit.Mapping("mapping", map[string]any{"value": true}))
if err != nil {
t.Fatal(err)
}
sources := loaded.Sources()
if len(sources) != 1 || sources[0].PlacementMode != configkit.PlacementModeMapping || sources[0].DestinationUnresolved {
t.Fatalf("mapping source evidence = %#v", sources)
}
first := sources[0]
first.Destination = configkit.Keys("caller")
if again := loaded.Sources(); len(again) != 1 || again[0].Destination.String() != "" || again[0].DestinationUnresolved {
t.Fatalf("source evidence changed after caller mutation: %#v", again)
}
}
func TestLayeredSequenceUpsertHistoryRetainsLowerTierRecords(t *testing.T) {
definition := configkit.Definition[map[string]any]{
SequenceIdentities: []configkit.SequenceIdentity{configkit.SequenceIdentityAt(configkit.Keys("entries"), "id")},
}
result, err := configkit.LoadLayered[map[string]any](configkit.Input{Source: configkit.Bytes("main", []byte("entries: [{id: main}]\n"))}, configkit.LayeredOptions[map[string]any]{
Definition: definition,
Underlays: []configkit.Underlay{{Inputs: []configkit.Input{{
Source: configkit.Bytes("lower", []byte("entries: [{id: lower}]\n")),
}}}},
})
if err != nil {
t.Fatal(err)
}
for index, id := range []string{"lower", "main"} {
path := configkit.Keys("entries").Index(index).Key("id")
explanation, ok := result.Explain(path)
if !ok || !explanation.Effective.Present || explanation.Effective.YAML != id+"\n" || len(explanation.History) == 0 {
t.Fatalf("tier history at %s = %#v, %v", path.String(), explanation, ok)
}
if explanation.History[len(explanation.History)-1].After.YAML != id+"\n" {
t.Fatalf("tier history at %s does not retain final record: %#v", path.String(), explanation.History)
}
}
}
func TestFacadeSequenceReplacementKeepsTypedAndHistoricalEvidenceAligned(t *testing.T) {
type record struct {
ID string `yaml:"id"`
Count int `yaml:"count"`
Enabled bool `yaml:"enabled"`
Empty string `yaml:"empty"`
Nullable *string `yaml:"nullable"`
Token string `yaml:"token"`
Omitted string `yaml:"omitted"`
}
type configuration struct {
Entries []record `yaml:"entries"`
}
directory := t.TempDir()
mainPath := filepath.Join(directory, "main.yml")
underlayPath := filepath.Join(directory, "underlay.yml")
if err := os.WriteFile(mainPath, []byte(`configkit:
sequences:
- destination: [entries]
key: id
mode: replace
entries:
- id: current
count: 0
enabled: false
empty: ""
nullable: null
token: CURRENT-SECRET-CANARY
`), 0o600); err != nil {
t.Fatal(err)
}
if err := os.WriteFile(underlayPath, []byte(`configkit:
imports:
- glob: records/*.yml
destination: [entries]
placement: sequence-item
`), 0o600); err != nil {
t.Fatal(err)
}
recordsDir := filepath.Join(directory, "records")
if err := os.MkdirAll(recordsDir, 0o700); err != nil {
t.Fatal(err)
}
for name, body := range map[string]string{
"a.yml": "id: old-a\ntoken: OLD-SECRET-CANARY-A\n",
"b.yml": "id: old-b\ntoken: OLD-SECRET-CANARY-B\n",
} {
if err := os.WriteFile(filepath.Join(recordsDir, name), []byte(body), 0o600); err != nil {
t.Fatal(err)
}
}
var callbackItems []configkit.SourceInfo
var callbackContexts []configkit.ResourceContext
result, err := configkit.LoadLayered(configkit.Input{Source: configkit.File(mainPath)}, configkit.LayeredOptions[configuration]{
Underlays: []configkit.Underlay{{Inputs: []configkit.Input{{Source: configkit.File(underlayPath), Imports: true}}}},
Definition: configkit.Definition[configuration]{
SequenceIdentities: []configkit.SequenceIdentity{configkit.SequenceIdentityAt(configkit.Keys("entries"), "id")},
Secret: func(path configkit.Path) bool {
return path.String() == "/entries/0/token" || path.String() == "/entries/1/token"
},
Resolve: func(value *configuration, resolution *configkit.Resolution) error {
for _, field := range []string{"count", "enabled", "empty", "nullable"} {
path := configkit.Keys("entries").Index(0).Key(field)
if !resolution.IsExplicit(path) {
t.Errorf("resolver did not see explicit %s", path.String())
}
}
if resolution.IsExplicit(configkit.Keys("entries").Index(0).Key("omitted")) {
t.Error("resolver treated an omitted field as explicit")
}
info, found := resolution.InputInfo(configkit.Keys("entries").Index(0).Key("count"))
if !found || info.Origin.Layer != configkit.LayerBase {
t.Errorf("resolver current-record input info = %#v, %v", info, found)
}
for _, id := range []string{"source-3", "source-4"} {
source, ok := resolution.Source(id)
if !ok {
t.Errorf("resolver could not query %s", id)
continue
}
context, contextOK := resolution.SourceContext(id)
if !contextOK || context.FS == nil || context.BaseDir != "records" {
t.Errorf("resolver context for %s = %#v, %v", id, context, contextOK)
}
callbackItems = append(callbackItems, source)
callbackContexts = append(callbackContexts, context)
}
return nil
},
},
})
if err != nil {
if loadError, ok := err.(*configkit.LoadError); ok {
t.Fatalf("layered item replacement: %#v", loadError.Diagnostics())
}
t.Fatalf("layered item replacement: %v", err)
}
if len(result.Config.Entries) != 1 || result.Config.Entries[0].ID != "current" || result.Config.Entries[0].Count != 0 ||
result.Config.Entries[0].Enabled || result.Config.Entries[0].Empty != "" || result.Config.Entries[0].Nullable != nil {
t.Fatalf("typed replacement result = %#v", result.Config)
}
if len(callbackItems) != 2 || len(callbackContexts) != 2 {
t.Fatalf("callback sources = %#v; contexts = %#v", callbackItems, callbackContexts)
}
for _, source := range callbackItems {
if source.PlacementMode != configkit.PlacementModeSequenceItem || source.Destination.String() != "/entries" || source.DestinationUnresolved {
t.Errorf("callback item source = %#v", source)
}
}
metadata := result.Metadata()
for _, field := range []string{"count", "enabled", "empty", "nullable"} {
path := configkit.Keys("entries").Index(0).Key(field)
if info, ok := metadata.Lookup(path); !ok || !info.Explicit || (field == "nullable") != info.Null {
t.Errorf("explicit metadata at %s = %#v, %v", path.String(), info, ok)
}
}
if info, ok := metadata.Lookup(configkit.Keys("entries").Index(0).Key("omitted")); ok && info.Explicit {
t.Errorf("metadata marked an omitted zero-valued field explicit: %#v", info)
}
mainID := ""
for _, source := range result.Sources() {
if source.Path == mainPath {
mainID = source.ID
}
}
currentOrigin, ok := metadata.Lookup(configkit.Keys("entries").Index(0).Key("id"))
if !ok || len(currentOrigin.Origin.Locations) != 1 || currentOrigin.Origin.Locations[0].SourceID != mainID || mainID == "" {
t.Fatalf("replacement origin = %#v, main source %q", currentOrigin, mainID)
}
oldRecord, ok := result.Explain(configkit.Keys("entries").Index(1).Key("token"))
if !ok || oldRecord.Effective.Present {
t.Fatalf("removed appended item explanation = %#v, %v", oldRecord, ok)
}
maskedHistory := false
for _, change := range oldRecord.History {
maskedHistory = maskedHistory || change.Before.Redacted || change.After.Redacted
}
if !maskedHistory {
t.Fatal("removed appended item lost historical sensitivity")
}
var effective bytes.Buffer
if err := result.WriteEffective(&effective); err != nil {
t.Fatal(err)
}
var explanation bytes.Buffer
if err := result.WriteExplanation(&explanation, configkit.Keys("entries").Index(1).Key("token")); err != nil {
t.Fatal(err)
}
for _, output := range []string{effective.String(), explanation.String()} {
for _, canary := range []string{"CURRENT-SECRET-CANARY", "OLD-SECRET-CANARY-A", "OLD-SECRET-CANARY-B"} {
if strings.Contains(output, canary) {
t.Fatalf("sensitive sequence value leaked: %s", output)
}
}
}
}

View File

@@ -0,0 +1,197 @@
package configkit_test
import (
"fmt"
"testing"
"testing/fstest"
configkit "gitea.maximumdirect.net/eric/ConfigKit"
)
type movedVersionItem struct {
ID string `yaml:"id"`
Version string `yaml:"version"`
}
type movedVersionCatalog struct {
Items []movedVersionItem `yaml:"items"`
}
func TestMainVersionDecodingFollowsSequenceMovement(t *testing.T) {
t.Parallel()
for _, mounted := range []bool{false, true} {
for _, matching := range []bool{false, true} {
for _, version := range []string{"4", "'4'"} {
t.Run(fmt.Sprintf("mounted=%t/matched=%t/%s", mounted, matching, version), func(t *testing.T) {
body := "items: [{id: main, version: " + version + "}]\n"
path := configkit.Keys("items").Index(0).Key("version")
main := configkit.Input{}
if mounted {
body, path = "id: main\nversion: "+version+"\n", configkit.Keys("version")
main.Destination, main.PlacementMode = configkit.Keys("items"), configkit.PlacementModeSequenceItem
}
main.Source = configkit.Bytes("main", []byte(body))
keep := "{id: keep}"
if mounted {
keep = "{id: keep, version: ordinary}"
}
lower := "items: [" + keep + "]\n"
if matching {
lower = "items: [" + keep + ", {id: main}]\n"
}
calls := 0
loaded, err := configkit.LoadLayered(main, configkit.LayeredOptions[movedVersionCatalog]{
SourceVersionMode: configkit.SourceVersionModeIfPresent,
Underlays: []configkit.Underlay{{Inputs: []configkit.Input{{Source: configkit.Bytes("lower", []byte(lower))}}}},
Definition: configkit.Definition[movedVersionCatalog]{
SequenceIdentities: []configkit.SequenceIdentity{configkit.SequenceIdentityAt(configkit.Keys("items"), "id")},
Version: &configkit.VersionRule{Path: path, Check: func(version configkit.Version, _ *configkit.Validation) error {
calls++
if !version.Present || version.Text != "4" {
t.Errorf("checked version = %#v", version)
}
return nil
}},
},
})
if err != nil {
t.Fatal(err)
}
if calls != 1 || len(loaded.Config.Items) != 2 || loaded.Config.Items[1].ID != "main" || loaded.Config.Items[1].Version != "4" {
t.Fatalf("moved main = %#v, checker calls = %d", loaded.Config, calls)
}
if mounted && loaded.Config.Items[0].Version != "ordinary" {
t.Fatal("unrelated underlay payload was treated as the main declaration")
}
for _, source := range loaded.Sources() {
if source.Layer == configkit.LayerBase && source.VersionCheck.Path.String() != path.String() {
t.Fatal("effective movement changed source-local version evidence")
}
}
})
}
}
}
}
func TestOverlayVersionProtectionUsesAssignedRecordPositions(t *testing.T) {
t.Parallel()
for _, test := range []struct {
name, payload string
code configkit.Code
}{
{name: "change main header", payload: "[{id: main, version: changed}]", code: configkit.CodeOverlayVersion},
{name: "remove main header", payload: "[{id: main}]", code: configkit.CodeOverlayVersion},
{name: "other record version", payload: "[{id: keep, version: ordinary}]"},
{name: "new record version", payload: "[{id: new, version: ordinary}]"},
{name: "only main header gets integer conversion", payload: "[{id: new, version: 5}]", code: configkit.CodeDecodeType},
} {
t.Run(test.name, func(t *testing.T) {
files := configkit.NewFilesystem("catalog", fstest.MapFS{
"overlays/test.yml": {Data: []byte("items: " + test.payload + "\n")},
})
calls := 0
loaded, err := configkit.LoadLayered(configkit.Input{
Source: configkit.Bytes("main", []byte("id: main\nversion: 4\n")), Destination: configkit.Keys("items"), PlacementMode: configkit.PlacementModeSequenceItem,
}, configkit.LayeredOptions[movedVersionCatalog]{
SourceVersionMode: configkit.SourceVersionModeIfPresent,
Overlay: "test", OverlayFilesystem: &configkit.FilesystemContext{FS: &files, BaseDir: ".", Root: "."},
Underlays: []configkit.Underlay{{Inputs: []configkit.Input{{Source: configkit.Bytes("lower", []byte("items: [{id: keep}]\n"))}}}},
Definition: configkit.Definition[movedVersionCatalog]{
SequenceIdentities: []configkit.SequenceIdentity{configkit.SequenceIdentityAt(configkit.Keys("items"), "id")},
Version: &configkit.VersionRule{Path: configkit.Keys("version"), Check: func(configkit.Version, *configkit.Validation) error { calls++; return nil }},
},
})
if calls != 1 {
t.Fatalf("checker calls = %d", calls)
}
if test.code != "" {
loadErr := requireFacadeLoadError(t, err)
if loaded != nil || len(loadErr.Diagnostics()) != 1 || loadErr.Diagnostics()[0].Code != test.code {
t.Fatalf("version diagnostics = %#v", loadErr.Diagnostics())
}
return
}
if err != nil {
t.Fatal(err)
}
if loaded.Config.Items[1].Version != "4" {
t.Fatal("unrelated overlay changed main header")
}
})
}
}
func TestUnderlayVersionProtectionUsesMainRecordPosition(t *testing.T) {
t.Parallel()
for _, imported := range []bool{false, true} {
t.Run(fmt.Sprintf("imported=%t", imported), func(t *testing.T) {
payload := "items: [{id: keep}, {id: main, version: forbidden}]\n"
lower := configkit.Input{Source: configkit.Bytes("lower", []byte(payload))}
want := configkit.CodeUnderlayVersion
if imported {
files := configkit.NewFilesystem("lower", fstest.MapFS{
"main.yml": {Data: []byte("configkit: {imports: [{path: fragment.yml}]}\n")},
"fragment.yml": {Data: []byte(payload)},
})
lower.Source, lower.Imports = files.File("main.yml"), true
want = configkit.CodeImportVersion
}
calls := 0
result, err := configkit.LoadLayered(configkit.Input{
Source: configkit.Bytes("main", []byte("id: main\nversion: 4\n")),
Destination: configkit.Keys("items"), PlacementMode: configkit.PlacementModeSequenceItem,
}, configkit.LayeredOptions[movedVersionCatalog]{
SourceVersionMode: configkit.SourceVersionModeIfPresent,
Underlays: []configkit.Underlay{{Inputs: []configkit.Input{lower}}},
Definition: configkit.Definition[movedVersionCatalog]{
SequenceIdentities: []configkit.SequenceIdentity{configkit.SequenceIdentityAt(configkit.Keys("items"), "id")},
Version: &configkit.VersionRule{Path: configkit.Keys("version"), Check: func(configkit.Version, *configkit.Validation) error { calls++; return nil }},
},
})
failure := requireFacadeLoadError(t, err)
if result != nil || calls != 1 || len(failure.Diagnostics()) != 1 || failure.Diagnostics()[0].Code != want || failure.Diagnostics()[0].Path.String() != "/items/1/version" {
t.Fatalf("result=%#v calls=%d diagnostics=%#v", result, calls, failure.Diagnostics())
}
})
}
}
func TestMainVersionFollowsInheritedSequenceMovement(t *testing.T) {
t.Parallel()
for _, parentID := range []string{"keep", "main"} {
t.Run(parentID, func(t *testing.T) {
body := "base: {items: [{id: " + parentID + ", version: ordinary}]}\nchild:\n extends: base\n items: [{id: main, version: 4}]\n"
type config struct {
Base, Child movedVersionCatalog
}
calls := 0
result, err := configkit.Load(configkit.Bytes("main", []byte(body)), configkit.Options[config]{
SourceVersionMode: configkit.SourceVersionModeIfPresent,
Definition: configkit.Definition[config]{
SequenceIdentities: []configkit.SequenceIdentity{
configkit.SequenceIdentityAt(configkit.Keys("base", "items"), "id"),
configkit.SequenceIdentityAt(configkit.Keys("child", "items"), "id"),
},
Version: &configkit.VersionRule{Path: configkit.Keys("child", "items").Index(0).Key("version"), Check: func(configkit.Version, *configkit.Validation) error { calls++; return nil }},
},
})
if calls != 1 {
t.Fatalf("checker calls = %d", calls)
}
if parentID == "main" {
failure := requireFacadeLoadError(t, err)
if result != nil || len(failure.Diagnostics()) != 1 || failure.Diagnostics()[0].Code != configkit.CodeInheritanceVersion {
t.Fatalf("diagnostics = %#v", failure.Diagnostics())
}
return
}
if err != nil {
t.Fatal(err)
}
if len(result.Config.Child.Items) != 2 || result.Config.Child.Items[1].Version != "4" || result.Config.Child.Items[0].Version != "ordinary" {
t.Fatalf("inherited items = %#v", result.Config.Child.Items)
}
})
}
}

View File

@@ -0,0 +1,889 @@
package configkit_test
import (
"bytes"
"errors"
"fmt"
"os"
"path/filepath"
"strings"
"testing"
"testing/fstest"
configkit "gitea.maximumdirect.net/eric/ConfigKit"
)
func TestFacadeSourceVersionEvidenceFollowsAssembledSequenceRanges(t *testing.T) {
t.Parallel()
for _, grouped := range []bool{false, true} {
index := 0
if grouped {
index = 1
}
for _, sensitivePath := range []string{"", fmt.Sprintf("/records/%d/version", index), fmt.Sprintf("/records/%d", index)} {
t.Run(fmt.Sprintf("grouped=%t/secret=%s", grouped, sensitivePath), func(t *testing.T) {
definition := configkit.Definition[map[string]any]{
SequenceIdentities: []configkit.SequenceIdentity{configkit.SequenceIdentityAt(configkit.Keys("records"), "id")},
Version: &configkit.VersionRule{Path: configkit.Keys("records").Index(0).Key("version"), Check: func(configkit.Version, *configkit.Validation) error { return nil }},
Secret: func(path configkit.Path) bool { return sensitivePath != "" && path.String() == sensitivePath },
}
first := "records: [{id: first, version: first-version}]\n"
child := "records: [{id: child, version: PRIVATE-VERSION-CANARY}]\n"
var result *configkit.Result[map[string]any]
var err error
if grouped {
result, err = configkit.LoadLayered(configkit.Input{Source: configkit.Bytes("main", []byte(first))}, configkit.LayeredOptions[map[string]any]{
Definition: definition, SourceVersionMode: configkit.SourceVersionModeRequired,
Underlays: []configkit.Underlay{{Inputs: []configkit.Input{
{Source: configkit.Bytes("first", []byte(first))}, {Source: configkit.Bytes("child", []byte(child))},
}}},
})
} else {
filesystem := configkit.NewFilesystem("versions", fstest.MapFS{
"main.yml": {Data: []byte("configkit: {imports: [{path: child.yml}]}\n" + first)},
"child.yml": {Data: []byte(child)},
})
result, err = configkit.Load(filesystem.File("main.yml"), configkit.Options[map[string]any]{
Definition: definition, Imports: true, SourceVersionMode: configkit.SourceVersionModeRequired,
})
}
if err != nil {
t.Fatal(err)
}
if !grouped {
records, ok := result.Config["records"].([]any)
if !ok || len(records) != 2 {
t.Fatalf("scheduled records = %#v", result.Config["records"])
}
firstRecord, ok := records[0].(map[string]any)
if !ok || firstRecord["id"] != "child" {
t.Fatalf("scheduled records = %#v", result.Config["records"])
}
}
sources := result.Sources()
check := sources[len(sources)-1].VersionCheck
if check == nil || check.Path.String() != "/records/0/version" || check.Location == nil || check.Location.SourceID != sources[len(sources)-1].ID {
t.Fatalf("source-local evidence changed: %#v", check)
}
if sensitivePath != "" {
if !check.Redacted || check.Version.Text != "" {
t.Fatal("shifted version evidence was disclosed")
}
} else if check.Redacted || check.Version.Text != "PRIVATE-VERSION-CANARY" {
t.Fatal("unclassified version evidence was lost")
}
})
}
}
}
func TestFacadeSourceVersionOwnershipAcceptsContextualIndexes(t *testing.T) {
t.Parallel()
parsed, err := configkit.ParsePath("/records/0/version")
if err != nil {
t.Fatal(err)
}
for _, grouped := range []bool{false, true} {
for _, path := range []configkit.Path{configkit.Keys("records").Index(0).Key("version"), parsed} {
definition := configkit.Definition[map[string]any]{
SequenceIdentities: []configkit.SequenceIdentity{configkit.SequenceIdentityAt(configkit.Keys("records"), "id")},
Version: &configkit.VersionRule{Path: path, Check: func(configkit.Version, *configkit.Validation) error { return nil }},
}
first := "records: [{id: first, version: first}]\n"
child := "records: [{id: child, version: child}]\n"
var result *configkit.Result[map[string]any]
if grouped {
result, err = configkit.LoadLayered(configkit.Input{Source: configkit.Bytes("main", []byte(first))}, configkit.LayeredOptions[map[string]any]{
Definition: definition, SourceVersionMode: configkit.SourceVersionModeRequired,
Underlays: []configkit.Underlay{{Inputs: []configkit.Input{{Source: configkit.Bytes("lower", []byte(child))}}}},
})
} else {
filesystem := configkit.NewFilesystem("versions", fstest.MapFS{"main.yml": {Data: []byte("configkit: {imports: [{path: child.yml}]}\n" + first)}, "child.yml": {Data: []byte(child)}})
result, err = configkit.Load(filesystem.File("main.yml"), configkit.Options[map[string]any]{Definition: definition, SourceVersionMode: configkit.SourceVersionModeRequired, Imports: true})
}
if err != nil || result == nil {
t.Fatalf("grouped=%t path=%#v: %v", grouped, path, err)
}
if len(result.Config["records"].([]any)) != 2 {
t.Fatal("version path changed composition")
}
}
}
}
func TestFacadeItemMainKeepsDefaultVersionOwnership(t *testing.T) {
t.Parallel()
for _, layered := range []bool{false, true} {
for _, protected := range []bool{true, false} {
body, helper := "id: main\n", "version: imported-version\n"
if !protected {
body += "version: main-version\n"
helper = "other: {version: permitted}\n"
}
filesystem := configkit.NewFilesystem("item-main", fstest.MapFS{
"main.yml": {Data: []byte(body + "configkit: {imports: [{path: helper.yml}]}\n")}, "helper.yml": {Data: []byte(helper)},
})
checks := 0
definition := configkit.Definition[map[string]any]{Version: &configkit.VersionRule{
Path: configkit.Keys("records").Index(0).Key("version"),
Check: func(version configkit.Version, _ *configkit.Validation) error {
checks++
if version.Text != "main-version" {
t.Error("helper supplied main version")
}
return nil
},
}}
var err error
if layered {
_, err = configkit.LoadLayered[map[string]any](configkit.Input{Source: filesystem.File("main.yml"), Imports: true, Destination: configkit.Keys("records"), PlacementMode: configkit.PlacementModeSequenceItem}, configkit.LayeredOptions[map[string]any]{Definition: definition})
} else {
_, err = configkit.Load(filesystem.File("main.yml"), configkit.Options[map[string]any]{Definition: definition, Imports: true, Destination: configkit.Keys("records"), PlacementMode: configkit.PlacementModeSequenceItem})
}
if protected {
loadError, ok := err.(*configkit.LoadError)
if !ok || len(loadError.Diagnostics()) != 1 || loadError.Diagnostics()[0].Code != configkit.CodeImportVersion || loadError.Diagnostics()[0].Path.String() != "/records/0/version" || checks != 0 {
t.Fatalf("layered=%t ownership error = %v, checks=%d", layered, err, checks)
}
} else if err != nil || checks != 1 {
t.Fatalf("unrelated helper version rejected: %v, checks=%d", err, checks)
}
}
}
}
type sourceVersionModeReader struct {
*strings.Reader
reads int
}
func TestFacadeSourceVersionEvidenceRedactsCollidingShapes(t *testing.T) {
t.Parallel()
type header struct {
Version string `yaml:"version"`
}
type secretHeader struct {
Version string `yaml:"version" configkit:"secret"`
}
type configuration struct {
Meta map[string]header `yaml:"meta"`
Data struct {
Meta map[string]secretHeader `yaml:"meta"`
} `yaml:"data"`
}
path, err := configkit.ParsePath("/meta/0/version")
if err != nil {
t.Fatal(err)
}
for _, reverse := range []bool{false, true} {
groups := []configkit.Underlay{
{Inputs: []configkit.Input{{
Source: configkit.Bytes("mapping", []byte("meta: {\"0\": {version: PRIVATE-HEADER-CANARY}}\n")),
Destination: configkit.Keys("data"),
}}},
{Inputs: []configkit.Input{{
Source: configkit.Bytes("sequence", []byte("meta: [{version: another-header}]\n")),
Destination: configkit.Keys("data"),
}}},
}
if reverse {
groups[0], groups[1] = groups[1], groups[0]
}
loaded, err := configkit.LoadLayered(configkit.Input{
Source: configkit.Bytes("main", []byte("meta: {\"0\": {version: main}}\ndata: {meta: null}\n")),
}, configkit.LayeredOptions[configuration]{
Definition: configkit.Definition[configuration]{Version: &configkit.VersionRule{
Path: path, Check: func(configkit.Version, *configkit.Validation) error { return nil },
}},
SourceVersionMode: configkit.SourceVersionModeRequired, Underlays: groups,
})
if err != nil {
t.Fatal(err)
}
if loaded.Config.Meta["0"].Version != "main" || loaded.Config.Data.Meta != nil {
t.Fatalf("reverse=%v: final payload changed: %#v", reverse, loaded.Config)
}
foundMapping := false
for _, source := range loaded.Sources() {
if source.Label != "mapping" {
continue
}
foundMapping = true
if check := source.VersionCheck; check == nil || !check.Version.Present || !check.Redacted || check.Version.Text != "" {
t.Errorf("reverse=%v: schema-tagged header was not redacted", reverse)
}
}
if !foundMapping {
t.Fatal("missing mapping source record")
}
}
}
func TestFacadeSourceVersionModesPreserveImportOptIn(t *testing.T) {
t.Parallel()
for _, mode := range []configkit.SourceVersionMode{configkit.SourceVersionModeIfPresent, configkit.SourceVersionModeRequired} {
for _, underlay := range []bool{false, true} {
bad := configkit.Bytes("disabled-imports", []byte("version: accepted\nconfigkit: {imports: [{path: missing.yml}]}\nvalue: visible\n"))
definition := configkit.Definition[map[string]any]{Version: &configkit.VersionRule{
Path: configkit.Keys("version"), Check: func(configkit.Version, *configkit.Validation) error { return nil },
}}
var err error
var resultPresent bool
wantSource := "source-1"
if underlay {
loaded, loadErr := configkit.LoadLayered(configkit.Input{Source: configkit.Bytes("main", []byte("version: main\n"))}, configkit.LayeredOptions[map[string]any]{
Definition: definition, SourceVersionMode: mode,
Underlays: []configkit.Underlay{{Inputs: []configkit.Input{{Source: bad}}}},
})
err, resultPresent, wantSource = loadErr, loaded != nil, "source-2"
} else {
loaded, loadErr := configkit.Load(bad, configkit.Options[map[string]any]{Definition: definition, SourceVersionMode: mode})
err, resultPresent = loadErr, loaded != nil
}
var failure *configkit.LoadError
if resultPresent || !errors.As(err, &failure) {
t.Errorf("mode=%v underlay=%v: import opt-in did not fail safely", mode, underlay)
continue
}
diagnostics := failure.Diagnostics()
if len(diagnostics) != 1 || diagnostics[0].Code != configkit.CodeImportDisabled || diagnostics[0].Path.String() != "/configkit" ||
diagnostics[0].Primary == nil || diagnostics[0].Primary.SourceID != wantSource {
t.Errorf("mode=%v underlay=%v: diagnostics=%#v", mode, underlay, diagnostics)
}
}
}
}
func TestFacadeSourceVersionAbsenceKeepsCompleteEvidencePath(t *testing.T) {
t.Parallel()
for _, test := range []struct {
name, main, underlay string
path configkit.Path
}{
{"missing member", "meta: {version: main}\n", "{}\n", configkit.Keys("meta", "version")},
{"scalar obstruction", "meta: {version: main}\n", "meta: false\n", configkit.Keys("meta", "version")},
{"unavailable index", "meta: [null, null, null, {version: main}]\n", "meta: []\n", configkit.Keys("meta").Index(3).Key("version")},
} {
for _, mode := range []configkit.SourceVersionMode{configkit.SourceVersionModeIfPresent, configkit.SourceVersionModeRequired} {
var callbackEvidence *configkit.SourceVersionCheck
loaded, err := configkit.LoadLayered(configkit.Input{Source: configkit.Bytes("main", []byte(test.main))}, configkit.LayeredOptions[map[string]any]{
SourceVersionMode: mode,
Definition: configkit.Definition[map[string]any]{
Version: &configkit.VersionRule{Path: test.path, Check: func(configkit.Version, *configkit.Validation) error { return nil }},
Resolve: func(_ *map[string]any, resolution *configkit.Resolution) error {
source, found := resolution.Source("source-2")
if !found {
t.Fatal("missing callback source")
}
callbackEvidence = source.VersionCheck
return nil
},
},
Underlays: []configkit.Underlay{{Inputs: []configkit.Input{{
Source: configkit.Bytes("underlay", []byte(test.underlay)), Destination: configkit.Keys("under"),
}}}},
})
var evidence *configkit.SourceVersionCheck
if mode == configkit.SourceVersionModeRequired {
var failure *configkit.LoadError
if loaded != nil || !errors.As(err, &failure) {
t.Fatalf("%s: required omission did not fail", test.name)
}
diagnostics := failure.Diagnostics()
if len(diagnostics) != 1 || diagnostics[0].Code != configkit.CodeVersionError || diagnostics[0].Path.String() != test.path.String() {
t.Fatalf("%s: required diagnostics=%#v", test.name, diagnostics)
}
evidence = failure.Sources()[1].VersionCheck
} else {
if err != nil {
t.Fatalf("%s: %v", test.name, err)
}
evidence = loaded.Sources()[1].VersionCheck
if callbackEvidence == nil || callbackEvidence.Path.String() != test.path.String() {
t.Errorf("%s: callback path is incomplete", test.name)
}
}
if evidence == nil || evidence.Version.Present || evidence.Path.String() != test.path.String() ||
evidence.Location == nil || evidence.Location.SourceID != "source-2" || evidence.Location.Line != 1 {
t.Errorf("%s mode=%v: absence evidence=%#v", test.name, mode, evidence)
}
}
}
}
func TestFacadeSourceVersionMissingHeaderDoesNotOverlapControl(t *testing.T) {
t.Parallel()
for _, test := range []struct {
name string
mode configkit.SourceVersionMode
control string
wantCode configkit.Code
}{
{"optional omission", configkit.SourceVersionModeIfPresent, "base", ""},
{"required omission", configkit.SourceVersionModeRequired, "base", configkit.CodeVersionError},
{"invalid control", configkit.SourceVersionModeIfPresent, "true", configkit.CodeInheritanceInvalid},
} {
t.Run(test.name, func(t *testing.T) {
main := configkit.Bytes("main", []byte("{}\n"))
if test.mode == configkit.SourceVersionModeRequired {
main = configkit.NoSource()
}
checks := 0
path := configkit.Keys("entries", "child", "extends", "version")
loaded, err := configkit.LoadLayered(configkit.Input{Source: main, Destination: configkit.Keys("main")}, configkit.LayeredOptions[map[string]any]{
SourceVersionMode: test.mode,
Definition: configkit.Definition[map[string]any]{Version: &configkit.VersionRule{
Path: path, Check: func(version configkit.Version, _ *configkit.Validation) error {
checks++
if version.Present {
t.Error("checker received a nonexistent declaration")
}
return nil
},
}},
Underlays: []configkit.Underlay{{Inputs: []configkit.Input{{
Source: configkit.Bytes("underlay", []byte("entries:\n base: {value: good}\n child: {extends: "+test.control+"}\n")), Destination: configkit.Keys("under"),
}}}},
})
if checks != 1 {
t.Errorf("checker ran %d times, want absent main only", checks)
}
if test.wantCode != "" {
var failure *configkit.LoadError
if loaded != nil || !errors.As(err, &failure) {
t.Fatal("invalid input did not fail safely")
}
if diagnostics := failure.Diagnostics(); len(diagnostics) != 1 || diagnostics[0].Code != test.wantCode {
t.Fatalf("diagnostics=%#v", diagnostics)
}
return
}
if err != nil {
t.Fatal(err)
}
child := loaded.Config["under"].(map[string]any)["entries"].(map[string]any)["child"].(map[string]any)
if child["value"] != "good" {
t.Fatal("valid sibling inheritance was not applied")
}
check := loaded.Sources()[1].VersionCheck
if check == nil || check.Version.Present || check.Path.String() != path.String() {
t.Fatal("optional omission evidence was not retained")
}
})
}
}
func (reader *sourceVersionModeReader) Read(data []byte) (int, error) {
reader.reads++
return reader.Reader.Read(data)
}
func TestFacadeSourceVersionModesAcrossOrdinaryAndLayeredLoads(t *testing.T) {
t.Parallel()
var checked []configkit.Version
definition := configkit.Definition[map[string]any]{Version: &configkit.VersionRule{
Path: configkit.Keys("meta", "version"),
Check: func(version configkit.Version, _ *configkit.Validation) error {
checked = append(checked, version)
return nil
},
}}
ordinary, err := configkit.Load(configkit.Bytes("ordinary", []byte("meta: {version: ordinary-v}\n")), configkit.Options[map[string]any]{
Definition: definition, SourceVersionMode: configkit.SourceVersionModeIfPresent,
})
if err != nil || ordinary == nil {
t.Fatalf("ordinary enabled load = %#v, %v", ordinary, err)
}
if got := ordinary.Config["meta"].(map[string]any)["version"]; got != "ordinary-v" {
t.Fatalf("main declaration was not retained: %#v", ordinary.Config)
}
directory := t.TempDir()
mainPath := filepath.Join(directory, "main.yml")
if err := os.WriteFile(mainPath, []byte("meta: {version: main-v}\n"), 0o600); err != nil {
t.Fatal(err)
}
layered, err := configkit.LoadLayered(configkit.Input{Source: configkit.File(mainPath)}, configkit.LayeredOptions[map[string]any]{
Definition: definition, SourceVersionMode: configkit.SourceVersionModeRequired,
Underlays: []configkit.Underlay{{Inputs: []configkit.Input{{
Source: configkit.Mapping("underlay", map[string]any{
"meta": map[string]any{"version": "underlay-v"}, "fallback": "present",
}),
Destination: configkit.Keys("defaults"),
}}}},
})
if err != nil || layered == nil {
t.Fatalf("layered enabled load = %#v, %v", layered, err)
}
defaults, ok := layered.Config["defaults"].(map[string]any)
if !ok || defaults["fallback"] != "present" {
t.Fatalf("layered underlay payload = %#v", layered.Config["defaults"])
}
if meta, ok := defaults["meta"].(map[string]any); !ok || len(meta) != 0 {
t.Fatalf("accepted underlay declaration was not consumed: %#v", defaults["meta"])
}
if len(checked) != 3 {
t.Fatalf("checker calls across separate mode uses = %#v", checked)
}
for _, want := range []string{"ordinary-v", "main-v", "underlay-v"} {
found := false
for _, version := range checked {
found = found || version.Present && version.Text == want
}
if !found {
t.Errorf("checked versions %#v do not include %q", checked, want)
}
}
}
func TestFacadeSourceVersionModeZeroPreservesDefaultBehavior(t *testing.T) {
t.Parallel()
checks := 0
result, err := configkit.Load(configkit.Bytes("default", []byte("version: v1\n")), configkit.Options[map[string]any]{
Definition: configkit.Definition[map[string]any]{Version: &configkit.VersionRule{
Path: configkit.Keys("version"),
Check: func(version configkit.Version, _ *configkit.Validation) error {
checks++
if version != (configkit.Version{Present: true, Text: "v1"}) {
t.Errorf("default version = %#v", version)
}
return nil
},
}},
})
if err != nil || result == nil || result.Config["version"] != "v1" || checks != 1 {
t.Fatalf("zero-mode load = %#v, %v; checks = %d", result, err, checks)
}
}
func TestFacadeSourceVersionModeValidationPrecedesSourceReads(t *testing.T) {
t.Parallel()
validDefinition := configkit.Definition[map[string]any]{Version: &configkit.VersionRule{
Path: configkit.Keys("version"), Check: func(configkit.Version, *configkit.Validation) error { return nil },
}}
for _, test := range []struct {
name string
mode configkit.SourceVersionMode
def configkit.Definition[map[string]any]
layered bool
}{
{name: "unknown ordinary mode", mode: configkit.SourceVersionMode(255), def: validDefinition},
{name: "ordinary mode requires checker", mode: configkit.SourceVersionModeIfPresent},
{name: "unknown layered mode", mode: configkit.SourceVersionMode(255), def: validDefinition, layered: true},
{name: "layered mode requires checker", mode: configkit.SourceVersionModeRequired, layered: true},
} {
t.Run(test.name, func(t *testing.T) {
reader := &sourceVersionModeReader{Reader: strings.NewReader("version: v1\n")}
source := configkit.Reader("version.yml", reader)
var err error
if test.layered {
_, err = configkit.LoadLayered(configkit.Input{Source: source}, configkit.LayeredOptions[map[string]any]{
Definition: test.def, SourceVersionMode: test.mode,
})
} else {
_, err = configkit.Load(source, configkit.Options[map[string]any]{
Definition: test.def, SourceVersionMode: test.mode,
})
}
var loadError *configkit.LoadError
if !errors.As(err, &loadError) || len(loadError.Diagnostics()) != 1 || loadError.Diagnostics()[0].Code != configkit.CodeOptionsInvalid {
t.Fatalf("invalid mode error = %#v", err)
}
if reader.reads != 0 {
t.Fatalf("invalid options read source %d times", reader.reads)
}
})
}
}
func TestFacadeSourceVersionDefinitionCanBeReusedWithDifferentModes(t *testing.T) {
t.Parallel()
checks := 0
definition := configkit.Definition[map[string]any]{Version: &configkit.VersionRule{
Path: configkit.Keys("version"),
Check: func(version configkit.Version, _ *configkit.Validation) error {
checks++
if version.Present {
t.Errorf("missing declaration reached checker as %#v", version)
}
return nil
},
}}
source := configkit.Bytes("reused", []byte("value: retained\n"))
ifPresent, err := configkit.Load(source, configkit.Options[map[string]any]{
Definition: definition, SourceVersionMode: configkit.SourceVersionModeIfPresent,
})
if err != nil || ifPresent == nil || checks != 1 {
t.Fatalf("if-present load = %#v, %v; checks = %d", ifPresent, err, checks)
}
required, err := configkit.Load(source, configkit.Options[map[string]any]{
Definition: definition, SourceVersionMode: configkit.SourceVersionModeRequired,
})
var loadError *configkit.LoadError
if required != nil || !errors.As(err, &loadError) || len(loadError.Diagnostics()) != 1 || loadError.Diagnostics()[0].Code != configkit.CodeVersionError {
t.Fatalf("required load = %#v, %v", required, err)
}
if checks != 1 {
t.Fatalf("required absence reached checker: calls = %d", checks)
}
}
func TestFacadeSourceVersionEvidenceIsSanitizedAndDetached(t *testing.T) {
t.Parallel()
const canary = "PRIVATE-SOURCE-VERSION-CANARY"
directory := t.TempDir()
path := filepath.Join(directory, "main.yml")
if err := os.WriteFile(path, []byte("version: "+canary+"\nvalue: visible\n"), 0o600); err != nil {
t.Fatal(err)
}
var callbackSource configkit.SourceInfo
var callbackContext configkit.ResourceContext
definition := configkit.Definition[map[string]any]{
Version: &configkit.VersionRule{Path: configkit.Keys("version"), Check: func(configkit.Version, *configkit.Validation) error { return nil }},
Secret: func(candidate configkit.Path) bool { return candidate.String() == "/service/version" },
Resolve: func(_ *map[string]any, resolution *configkit.Resolution) error {
var found bool
callbackSource, found = resolution.Source("source-1")
if !found {
t.Fatal("resolution callback could not query the acquired source")
}
if callbackSource.VersionCheck == nil || !callbackSource.VersionCheck.Redacted || callbackSource.VersionCheck.Version.Text != "" {
t.Fatalf("callback source did not conservatively redact evidence: %#v", callbackSource.VersionCheck)
}
callbackContext, found = resolution.SourceContext("source-1")
if !found || callbackContext.FS == nil || callbackContext.BaseDir != "." {
t.Fatalf("callback source context = %#v, found=%v", callbackContext, found)
}
return nil
},
}
loaded, err := configkit.LoadLayered(configkit.Input{Source: configkit.File(path), Destination: configkit.Keys("service")}, configkit.LayeredOptions[map[string]any]{
Definition: definition, SourceVersionMode: configkit.SourceVersionModeIfPresent,
})
if err != nil || loaded == nil {
t.Fatalf("LoadLayered = %#v, %v", loaded, err)
}
if callbackSource.VersionCheck == nil || !callbackSource.VersionCheck.Redacted || callbackSource.VersionCheck.Version.Text != "" {
t.Fatalf("callback evidence lost its conservative snapshot: %#v", callbackSource.VersionCheck)
}
callbackSource.VersionCheck.Path = configkit.Keys("mutated-callback")
callbackSource.VersionCheck.Version.Text = canary
callbackSource.VersionCheck.Location.Line = 98
finalSources := loaded.Sources()
if len(finalSources) != 1 || finalSources[0].Path != path || finalSources[0].VersionCheck == nil {
t.Fatalf("final sources = %#v", finalSources)
}
check := finalSources[0].VersionCheck
if check.Path.String() != "/version" || check.Version != (configkit.Version{Present: true}) || !check.Redacted ||
check.Location == nil || check.Location.SourceID != finalSources[0].ID || check.Location.Line != 1 {
t.Fatalf("final classified evidence = %#v", check)
}
if err := os.Remove(path); err != nil {
t.Fatal(err)
}
if callbackContext.FS == nil || callbackContext.BaseDir != "." {
t.Fatalf("resource metadata changed after removing the source: %#v", callbackContext)
}
check.Path = configkit.Keys("mutated")
check.Location.Line = 99
check.Redacted = false
check.Version.Text = "mutated"
repeated := loaded.Sources()
if len(repeated) != 1 || repeated[0].VersionCheck.Path.String() != "/version" ||
repeated[0].VersionCheck.Location.Line != 1 || !repeated[0].VersionCheck.Redacted ||
repeated[0].VersionCheck.Version.Text != "" {
t.Fatalf("source evidence was aliased or re-read after source removal: %#v", repeated)
}
publicText := "PUBLIC-SOURCE-VERSION"
var publicCallback configkit.SourceInfo
public, err := configkit.Load(configkit.Bytes("public", []byte("version: "+publicText+"\n")), configkit.Options[map[string]any]{
SourceVersionMode: configkit.SourceVersionModeIfPresent,
Definition: configkit.Definition[map[string]any]{
Version: definition.Version,
Resolve: func(_ *map[string]any, resolution *configkit.Resolution) error {
publicCallback, _ = resolution.Source("source-1")
return nil
},
},
})
if err != nil || public == nil || len(public.Sources()) != 1 || public.Sources()[0].VersionCheck == nil {
t.Fatalf("unclassified source evidence = %#v, %v", public, err)
}
if got := public.Sources()[0].VersionCheck; got.Redacted || got.Version.Text != publicText || !got.Version.Present {
t.Fatalf("unclassified evidence = %#v", got)
}
if publicCallback.VersionCheck == nil || !publicCallback.VersionCheck.Redacted || publicCallback.VersionCheck.Version.Text != "" {
t.Fatalf("unclassified callback evidence was not initially conservative: %#v", publicCallback.VersionCheck)
}
}
func TestFacadeSourceVersionEvidenceOnFailedLoadsAndSyntheticSources(t *testing.T) {
t.Parallel()
definition := configkit.Definition[map[string]any]{Version: &configkit.VersionRule{
Path: configkit.Keys("version"), Check: func(configkit.Version, *configkit.Validation) error { return nil },
}}
t.Run("early import acquisition failure", func(t *testing.T) {
const canary = "EARLY-ACQUISITION-SOURCE-VERSION-CANARY"
checked := 0
earlyDefinition := configkit.Definition[map[string]any]{Version: &configkit.VersionRule{
Path: configkit.Keys("version"), Check: func(configkit.Version, *configkit.Validation) error { checked++; return nil },
}}
path := filepath.Join(t.TempDir(), "main.yml")
contents := "version: " + canary + "\nconfigkit:\n imports:\n - path: missing.yml\n required: true\n"
if err := os.WriteFile(path, []byte(contents), 0o600); err != nil {
t.Fatal(err)
}
_, err := configkit.LoadLayered(configkit.Input{Source: configkit.File(path), Imports: true}, configkit.LayeredOptions[map[string]any]{
Definition: earlyDefinition, SourceVersionMode: configkit.SourceVersionModeIfPresent,
})
var failure *configkit.LoadError
if !errors.As(err, &failure) || len(failure.Sources()) != 1 {
t.Fatalf("early acquisition failure sources = %#v, error %v", failure, err)
}
if checked != 1 {
t.Fatalf("main declaration checker calls = %d; error %v", checked, err)
}
check := failure.Sources()[0].VersionCheck
if check == nil || !check.Redacted || !check.Version.Present || check.Version.Text != "" {
t.Fatalf("early acquisition evidence was not conservatively redacted: %#v; sources %#v", check, failure.Sources())
}
if strings.Contains(err.Error(), canary) {
t.Fatalf("early acquisition failure disclosed source-version canary: %v", err)
}
})
_, err := configkit.Load(configkit.Bytes("malformed", []byte("version: true\n")), configkit.Options[map[string]any]{
Definition: definition, SourceVersionMode: configkit.SourceVersionModeIfPresent,
})
var loadError *configkit.LoadError
if !errors.As(err, &loadError) {
t.Fatalf("malformed version error = %v", err)
}
sources := loadError.Sources()
if len(sources) != 1 || sources[0].VersionCheck == nil || !sources[0].VersionCheck.Redacted ||
!sources[0].VersionCheck.Version.Present || sources[0].VersionCheck.Version.Text != "" || sources[0].VersionCheck.Path.String() != "/version" {
t.Fatalf("failed-load source evidence = %#v", sources)
}
sources[0].VersionCheck.Path = configkit.Keys("mutated-error")
sources[0].VersionCheck.Version.Text = "mutated"
sources[0].VersionCheck.Location.Line = 99
if again := loadError.Sources()[0].VersionCheck; again.Path.String() != "/version" || again.Version.Text != "" || again.Location.Line == 99 {
t.Fatalf("LoadError source evidence was aliased: %#v", again)
}
for _, test := range []struct {
name string
def configkit.Definition[map[string]any]
canary string
}{
{
name: "resolver failure",
canary: "RESOLVER-SOURCE-VERSION-CANARY",
def: configkit.Definition[map[string]any]{Version: definition.Version, Resolve: func(*map[string]any, *configkit.Resolution) error {
return errors.New("resolver failed")
}},
},
{
name: "validator failure",
canary: "VALIDATOR-SOURCE-VERSION-CANARY",
def: configkit.Definition[map[string]any]{Version: definition.Version, Validate: func(_ *map[string]any, validation *configkit.Validation) {
validation.Error(configkit.Keys("value"), "invalid value")
}},
},
} {
t.Run(test.name, func(t *testing.T) {
_, err := configkit.Load(configkit.Bytes("late-failure", []byte("version: "+test.canary+"\nvalue: configured\n")), configkit.Options[map[string]any]{
Definition: test.def, SourceVersionMode: configkit.SourceVersionModeIfPresent,
})
var failure *configkit.LoadError
if !errors.As(err, &failure) || len(failure.Sources()) != 1 {
t.Fatalf("late failure sources = %#v, error %v", failure, err)
}
if strings.Contains(err.Error(), test.canary) {
t.Fatalf("late failure disclosed source-version canary: %v", err)
}
check := failure.Sources()[0].VersionCheck
if check == nil || !check.Redacted || !check.Version.Present || check.Version.Text != "" {
t.Fatalf("late-failure evidence was not conservatively redacted: %#v", check)
}
})
}
defaultResult, err := configkit.Load(configkit.Bytes("default", []byte("version: 7\n")), configkit.Options[map[string]any]{})
if err != nil || defaultResult == nil || len(defaultResult.Sources()) != 1 || defaultResult.Sources()[0].VersionCheck != nil {
t.Fatalf("default source version check = %#v, %v", defaultResult, err)
}
withCLI, err := configkit.Load(configkit.Bytes("main", []byte("version: 8\nvalue: old\n")), configkit.Options[map[string]any]{
Definition: definition, SourceVersionMode: configkit.SourceVersionModeIfPresent,
Overrides: []configkit.Override{{Path: configkit.Keys("value"), Value: "new", Flag: "--value"}},
})
if err != nil || withCLI == nil {
t.Fatalf("enabled load with CLI source = %#v, %v", withCLI, err)
}
sawCLI := false
for _, source := range withCLI.Sources() {
if source.Kind == configkit.SourceKindCLI && source.VersionCheck != nil {
t.Fatalf("synthetic CLI source acquired declaration evidence: %#v", source)
}
sawCLI = sawCLI || source.Kind == configkit.SourceKindCLI
}
if !sawCLI {
t.Fatalf("CLI source record missing: %#v", withCLI.Sources())
}
}
func TestFacadeSourceVersionEvidencePreservesAbsenceAndNull(t *testing.T) {
t.Parallel()
var checked []configkit.Version
loaded, err := configkit.LoadLayered(configkit.Input{Source: configkit.Bytes("main", []byte("version: 17\n"))}, configkit.LayeredOptions[map[string]any]{
SourceVersionMode: configkit.SourceVersionModeIfPresent,
Definition: configkit.Definition[map[string]any]{Version: &configkit.VersionRule{
Path: configkit.Keys("version"),
Check: func(version configkit.Version, _ *configkit.Validation) error {
checked = append(checked, version)
return nil
},
}},
Underlays: []configkit.Underlay{{Inputs: []configkit.Input{
{Source: configkit.Bytes("absent", []byte("value: visible\n")), Destination: configkit.Keys("absent")},
{Source: configkit.Bytes("null", []byte("version: null\nvalue: visible\n")), Destination: configkit.Keys("nullable")},
}}},
})
if err != nil || loaded == nil {
t.Fatalf("LoadLayered = %#v, %v", loaded, err)
}
if len(checked) != 2 || !checked[0].Present || checked[0].Text != "17" ||
!checked[1].Present || !checked[1].Null {
t.Fatalf("checker calls = %#v; absent contribution must skip while null is checked", checked)
}
sources := loaded.Sources()
if len(sources) != 3 || sources[1].VersionCheck == nil || sources[2].VersionCheck == nil {
t.Fatalf("source version evidence = %#v", sources)
}
absent := sources[1].VersionCheck
if absent.Version.Present || absent.Path.String() != "/version" || absent.Location == nil || absent.Redacted {
t.Fatalf("optional omission evidence = %#v", absent)
}
null := sources[2].VersionCheck
if !null.Version.Present || !null.Version.Null || null.Version.Text != "" || null.Path.String() != "/version" {
t.Fatalf("null declaration evidence = %#v", null)
}
}
func TestFacadeSourceVersionLifecycleKeepsConsumedHeadersOutOfPayloadHistory(t *testing.T) {
type serviceConfig struct {
Version uint64 `yaml:"version"`
Count int `yaml:"count"`
Enabled bool `yaml:"enabled"`
Nullable *string `yaml:"nullable"`
Revision string `yaml:"revision"`
Defaulted string `yaml:"defaulted"`
Resolved string `yaml:"resolved"`
Credential configkit.Secret `yaml:"credential"`
}
type configuration struct {
Service serviceConfig `yaml:"service"`
}
t.Setenv("CONFIGKIT_LIFECYCLE_SECRET", "lifecycle-secret-value")
var checked []configkit.Version
var validationCalls int
definition := configkit.Definition[configuration]{
Defaults: func() configuration {
return configuration{Service: serviceConfig{Defaulted: "from defaults"}}
},
Version: &configkit.VersionRule{
Path: configkit.Keys("version"),
Check: func(version configkit.Version, _ *configkit.Validation) error {
checked = append(checked, version)
return nil
},
},
Resolve: func(current *configuration, resolution *configkit.Resolution) error {
current.Service.Resolved = "resolved once"
resolution.Record(configkit.Keys("service", "resolved"), configkit.ChangeNormalization, "derive resolved value")
return nil
},
Validate: func(current *configuration, validation *configkit.Validation) {
validationCalls++
if current.Service.Version != 9007199254740993 || current.Service.Count != 0 || current.Service.Enabled ||
current.Service.Nullable != nil || current.Service.Revision != "ordinary-payload" || current.Service.Defaulted != "from defaults" ||
current.Service.Resolved != "resolved once" || current.Service.Credential.Value() != "lifecycle-secret-value" {
validation.Error(configkit.Keys("service"), "assembled values did not survive source declaration processing")
}
},
}
load := func(header string) *configkit.Result[configuration] {
t.Helper()
result, err := configkit.LoadLayered(configkit.Input{
Source: configkit.Bytes("main", []byte("version: 9007199254740993\n")), Destination: configkit.Keys("service"),
}, configkit.LayeredOptions[configuration]{
Definition: definition, SourceVersionMode: configkit.SourceVersionModeIfPresent,
Underlays: []configkit.Underlay{{Inputs: []configkit.Input{{
Source: configkit.Bytes("underlay", []byte("version: "+header+"\ncount: 0\nenabled: false\nnullable: null\nrevision: ordinary-payload\ncredential: CONFIGKIT_LIFECYCLE_SECRET\n")),
Destination: configkit.Keys("service"),
}}}},
})
if err != nil || result == nil {
var failure *configkit.LoadError
var diagnostics []configkit.Diagnostic
if errors.As(err, &failure) {
diagnostics = failure.Diagnostics()
}
t.Fatalf("LoadLayered(%q) = %#v, %v; diagnostics %#v", header, result, err, diagnostics)
}
return result
}
first := load("underlay-release-a")
second := load("underlay-release-b")
if len(checked) != 4 || checked[0].Text != "9007199254740993" || checked[1].Text != "underlay-release-a" ||
checked[2].Text != "9007199254740993" || checked[3].Text != "underlay-release-b" {
t.Fatalf("source declarations checked = %#v", checked)
}
if validationCalls != 2 || first.Config.Service != second.Config.Service {
t.Fatalf("final configs or validation count = %#v, %#v, %d", first.Config, second.Config, validationCalls)
}
if differences, err := configkit.Diff(first, second); err != nil || len(differences) != 0 {
t.Fatalf("different consumed declarations created effective differences: %#v, %v", differences, err)
}
var firstEffective, secondEffective bytes.Buffer
if err := first.WriteEffective(&firstEffective); err != nil {
t.Fatal(err)
}
if err := second.WriteEffective(&secondEffective); err != nil {
t.Fatal(err)
}
if firstEffective.String() != secondEffective.String() || strings.Contains(firstEffective.String(), "underlay-release") {
t.Fatalf("consumed declarations affected effective rendering:\n%s\n%s", firstEffective.String(), secondEffective.String())
}
sourcesA, sourcesB := first.Sources(), second.Sources()
if len(sourcesA) != 2 || len(sourcesB) != 2 || sourcesA[1].VersionCheck == nil || sourcesB[1].VersionCheck == nil ||
sourcesA[1].VersionCheck.Version.Text != "underlay-release-a" || sourcesB[1].VersionCheck.Version.Text != "underlay-release-b" {
t.Fatalf("sanitized evidence did not retain distinct accepted declarations: %#v / %#v", sourcesA, sourcesB)
}
versionExplanation, found := first.Explain(configkit.Keys("service", "version"))
if !found {
t.Fatal("retained main version missing from effective explanation")
}
underlayID := sourcesA[1].ID
for _, location := range versionExplanation.Origin.Locations {
if location.SourceID == underlayID {
t.Fatalf("consumed underlay declaration entered effective origin: %#v", versionExplanation.Origin)
}
}
for _, change := range versionExplanation.History {
for _, location := range change.Origin.Locations {
if location.SourceID == underlayID {
t.Fatalf("consumed underlay declaration entered effective history: %#v", versionExplanation.History)
}
}
}
}

View File

@@ -0,0 +1,106 @@
package engine
import (
"errors"
"fmt"
"testing"
"testing/fstest"
)
func TestNestedCollectionInitializationIsIndependentOfAncestorPresence(t *testing.T) {
t.Parallel()
for _, ancestor := range []string{"{}", "group: {}", "group: null"} {
for _, test := range []struct {
mode, key, value string
valid bool
}{
{mode: "append", value: "[{id: a}]"},
{mode: "upsert", value: "[{id: a}]"},
{mode: "append", value: "[]"},
{mode: "upsert", value: "[]"},
{mode: "append", key: ", key: id", value: "{}"},
{mode: "upsert", key: ", key: id", value: "null"},
{mode: "append", key: ", key: id", value: "[{id: a}]", valid: true},
{mode: "upsert", key: ", key: id", value: "[]", valid: true},
} {
t.Run(fmt.Sprintf("%s/%s/%s/%s", ancestor, test.mode, test.key, test.value), func(t *testing.T) {
main := "configkit:\n sequences: [{destination: [group, items], mode: " + test.mode + test.key + "}]\ngroup: {items: " + test.value + "}\n"
loaded, err := testGroupedLoad(loadRequest[map[string]any]{
main: loadInput{source: Bytes("main", []byte(main))},
underlays: []loadGroup{{inputs: []loadInput{{source: Bytes("lower", []byte(ancestor))}}}},
})
if test.valid {
if err != nil || loaded == nil {
t.Fatalf("valid initialization failed: %v", err)
}
return
}
var loadErr *LoadError
if !errors.As(err, &loadErr) || loaded != nil {
t.Fatalf("invalid collection operation succeeded: %#v, %v", loaded, err)
}
diagnostics := loadErr.Diagnostics()
if len(diagnostics) != 1 || diagnostics[0].Code != CodeSequenceInvalid || diagnostics[0].Path.String() != "/group/items" {
t.Fatalf("operation diagnostics = %#v", diagnostics)
}
})
}
}
}
func TestAddedAncestorTransfersNestedRecordPolicies(t *testing.T) {
t.Parallel()
type record struct {
ID string `yaml:"id"`
Steps []map[string]any `yaml:"steps"`
}
type config struct {
Group struct {
Items []record `yaml:"items"`
} `yaml:"group"`
}
files := fstest.MapFS{
"main.yml": {Data: []byte(`configkit:
sequences: [{destination: [group, items], key: id}]
imports: [{path: base.yml, destination: [group, items], placement: sequence-item}]
group:
items: [{id: child, extends: {id: base}, steps: [{name: child}]}]
`)},
"base.yml": {Data: []byte("configkit:\n sequences: [{destination: [steps], key: name}]\nid: base\nsteps: [{name: base}]\n")},
}
loaded, err := testGroupedLoad(loadRequest[config]{
main: loadInput{source: NewFilesystem("catalog", files).File("main.yml"), imports: true},
underlays: []loadGroup{{inputs: []loadInput{{source: Bytes("lower", []byte("{}"))}}}},
})
if err != nil {
t.Fatal(err)
}
for _, item := range loaded.Config.Group.Items {
if item.ID == "child" {
if len(item.Steps) != 2 || item.Steps[0]["name"] != "base" || item.Steps[1]["name"] != "child" {
t.Fatalf("record-local identity was lost when adding its ancestor: %#v", item.Steps)
}
return
}
}
t.Fatal("missing child record")
}
func TestInheritanceChecksCollectionOperationUnderAddedAncestor(t *testing.T) {
t.Parallel()
_, err := testLoad[map[string]any](Bytes("inheritance", []byte(`configkit:
sequences: [{destination: [child, group, items], mode: append}]
base: {}
child:
extends: base
group: {items: [{id: a}]}
`)))
var loadErr *LoadError
if !errors.As(err, &loadErr) {
t.Fatalf("missing nested operation error: %v", err)
}
diagnostics := loadErr.Diagnostics()
if len(diagnostics) != 1 || diagnostics[0].Code != CodeSequenceInvalid || diagnostics[0].Path.String() != "/child/group/items" {
t.Fatalf("nested inheritance operation diagnostics = %#v", diagnostics)
}
}

View File

@@ -0,0 +1,98 @@
package engine
import (
"fmt"
"strings"
"testing"
"gitea.maximumdirect.net/eric/ConfigKit/internal/document"
)
func TestOverlayBroadCollectionPoliciesAndRetainedDeclarations(t *testing.T) {
var baseBody, overlayBody strings.Builder
basePolicies := collectionPolicyScope{}
var declarations []sequenceDeclarationSpec
for index := range 64 {
name := fmt.Sprintf("group/%03d~", index)
fmt.Fprintf(&baseBody, "%s: {items: [{id: base}], retained: [{id: retained}], scalar: pending}\n", name)
fmt.Fprintf(&overlayBody, "%s: {items: [{id: overlay}], added: true}\n", name)
basePolicies.set(Keys(name, "items"), collectionPolicy{
identityFields: []string{"id"}, identityPresent: true,
explicitMode: sequenceModeAppend, explicitModePresent: true,
})
for _, key := range []string{"retained", "missing", "scalar"} {
declarations = append(declarations, sequenceDeclarationSpec{
destination: Keys(name, key), identityFields: []string{"id"}, identityPresent: true,
mode: sequenceModeAppend, modePresent: true,
})
}
}
base, diagnostics := composeDocuments(parseCompositionDocument(t, "base", baseBody.String()))
if len(diagnostics) != 0 {
t.Fatal(diagnostics)
}
base.collectionPolicies = basePolicies
assembly := newAssemblyAccumulator(base)
overlay := parseCompositionDocument(t, "overlay", overlayBody.String())
diagnostics = assembly.applyOverlayWithCollectionPolicy(overlay, nil, collectionPolicyScope{}, nil, LayerOverlay, sequencePolicy{}, declarations)
if len(diagnostics) != 0 {
t.Fatal(diagnostics)
}
lookup := buildDocumentLookup(assembly.current.root)
for index := range 64 {
name := fmt.Sprintf("group/%03d~", index)
items, found := documentAtPathWithLookup(assembly.current.root, Keys(name, "items"), lookup)
if !found || items.Kind != document.Sequence || len(items.Sequence) != 2 || items.Sequence[0].Mapping[0].Value.Text != "base" || items.Sequence[1].Mapping[0].Value.Text != "overlay" {
t.Fatalf("collection %s did not append in order", name)
}
for _, key := range []string{"retained", "missing", "scalar"} {
policy, found := assembly.current.collectionPolicies.at(Keys(name, key))
if !found || !policy.identityPresent || !policy.explicitModePresent || policy.explicitMode != sequenceModeAppend {
t.Fatalf("retained/pending declaration lost at %s/%s", name, key)
}
}
if _, found := documentAtPathWithLookup(assembly.current.root, Keys(name, "missing"), lookup); found {
t.Fatal("pending declaration created a value")
}
if origin := assembly.current.origins[Keys(name, "items").Index(1).Key("id").String()]; origin.Layer != LayerOverlay {
t.Fatal("appended item lost overlay attribution")
}
}
}
func TestInheritanceBroadCollectionsInOneDefinition(t *testing.T) {
var body strings.Builder
policies := collectionPolicyScope{}
for _, definition := range []string{"base", "child"} {
fmt.Fprintf(&body, "%s:\n", definition)
if definition == "child" {
body.WriteString(" extends: base\n")
}
for index := range 64 {
name := fmt.Sprintf("group/%03d~", index)
fmt.Fprintf(&body, " %s: {items: [{id: %s}]}\n", name, definition)
policy := collectionPolicy{identityFields: []string{"id"}, identityPresent: true}
if definition == "child" {
policy.explicitMode, policy.explicitModePresent = sequenceModeAppend, true
}
policies.set(Keys(definition, name, "items"), policy)
policies.set(Keys(definition, name, "pending"), collectionPolicy{identityFields: []string{"id"}, identityPresent: true})
}
}
root := parseCompositionDocument(t, "wide-collections", body.String())
result, diagnostics := expandInheritanceWithPolicies(root, nil, policies, defaultProjectionLimits())
if len(diagnostics) != 0 {
t.Fatal(diagnostics)
}
lookup := buildDocumentLookup(result.root)
for index := range 64 {
name := fmt.Sprintf("group/%03d~", index)
items, found := documentAtPathWithLookup(result.root, Keys("child", name, "items"), lookup)
if !found || len(items.Sequence) != 2 || items.Sequence[0].Mapping[0].Value.Text != "base" || items.Sequence[1].Mapping[0].Value.Text != "child" {
t.Fatalf("inherited collection %s did not append in order", name)
}
if policy, found := result.collectionPolicies.at(Keys("child", name, "pending")); !found || !policy.identityPresent {
t.Fatalf("pending inherited policy lost at %s", name)
}
}
}

View File

@@ -0,0 +1,209 @@
package engine
type collectionPolicy struct {
identityFields []string
identityPresent bool
identityLocation *Location
explicitMode sequenceMode
explicitModePresent bool
modeLocation *Location
recordOrder []*collectionRecordOwner
recordPolicies map[*collectionRecordOwner]collectionPolicyScope
}
type collectionPolicyResolution struct {
policy collectionPolicy
operation sequenceMode
declarations []sequenceDeclarationSpec
declarationsPresent bool
identityDeclarationPresent bool
modeDeclarationPresent bool
applicationIdentityFields []string
applicationIdentityPresent bool
effectiveIdentityFields []string
}
// resolveCollectionPolicy reconciles declarations for one destination before
// peers are composed. The caller supplies only lower policy that is applicable
// to this destination; record survival and ownership are resolved elsewhere.
func resolveCollectionPolicy(
destination Path,
declarations []sequenceDeclarationSpec,
applicationIdentityFields []string,
lower *collectionPolicy,
) (collectionPolicyResolution, []Diagnostic) {
normalizedDeclarations := cloneSequenceDeclarations(declarations)
for index := range normalizedDeclarations {
declaration := &normalizedDeclarations[index]
if !declaration.identityPresent {
continue
}
fields, err := normalizeSequenceIdentityFields(declaration.identityFields)
if err != nil {
return collectionPolicyResolution{}, []Diagnostic{{
Code: CodeSequenceInvalid, Severity: SeverityError, Path: destination.clone(),
Message: "collection identity declaration requires at least one field",
Primary: collectionDeclarationLocation(declaration.identityLocation, declaration.location),
}}
}
declaration.identityFields = fields
}
normalizedApplicationIdentityFields := cloneStrings(applicationIdentityFields)
if len(applicationIdentityFields) != 0 {
var err error
normalizedApplicationIdentityFields, err = normalizeSequenceIdentityFields(applicationIdentityFields)
if err != nil {
return collectionPolicyResolution{}, []Diagnostic{{
Code: CodeOptionsInvalid, Severity: SeverityError, Path: destination.clone(),
Message: "application collection identity fields are invalid",
}}
}
}
result := collectionPolicyResolution{
declarations: normalizedDeclarations,
declarationsPresent: len(normalizedDeclarations) != 0,
applicationIdentityFields: normalizedApplicationIdentityFields,
applicationIdentityPresent: len(normalizedApplicationIdentityFields) != 0,
}
var diagnostics []Diagnostic
var declaredIdentityFields []string
var declaredIdentityLocation *Location
var declaredMode sequenceMode
var declaredModeLocation *Location
for _, declaration := range normalizedDeclarations {
if declaration.identityPresent {
result.identityDeclarationPresent = true
if declaredIdentityFields == nil {
declaredIdentityFields = cloneStrings(declaration.identityFields)
declaredIdentityLocation = collectionDeclarationLocation(declaration.identityLocation, declaration.location)
} else if !equalSequenceIdentityFields(declaredIdentityFields, declaration.identityFields) {
diagnostics = append(diagnostics, collectionPolicyConflictDiagnostic(
destination, declaredIdentityLocation,
collectionDeclarationLocation(declaration.identityLocation, declaration.location),
"collection identity declarations conflict",
))
}
}
if declaration.modePresent {
result.modeDeclarationPresent = true
if declaredMode == 0 {
declaredMode = declaration.mode
declaredModeLocation = collectionDeclarationLocation(declaration.modeLocation, declaration.location)
} else if declaredMode != declaration.mode {
diagnostics = append(diagnostics, collectionPolicyConflictDiagnostic(
destination, declaredModeLocation,
collectionDeclarationLocation(declaration.modeLocation, declaration.location),
"collection operation declarations conflict",
))
}
}
}
if len(diagnostics) != 0 {
return collectionPolicyResolution{}, canonicalDiagnostics(diagnostics)
}
if lower != nil && lower.identityPresent && declaredIdentityFields != nil && !equalSequenceIdentityFields(lower.identityFields, declaredIdentityFields) {
diagnostics = append(diagnostics, collectionPolicyConflictDiagnostic(
destination, declaredIdentityLocation,
collectionDeclarationLocation(lower.identityLocation, Location{}),
"collection identity declaration conflicts with retained identity",
))
}
if result.applicationIdentityPresent {
if declaredIdentityFields != nil && !equalSequenceIdentityFields(normalizedApplicationIdentityFields, declaredIdentityFields) {
diagnostics = append(diagnostics, collectionPolicyConflictDiagnostic(
destination, declaredIdentityLocation, nil,
"collection identity declaration conflicts with application constraint",
))
}
if lower != nil && lower.identityPresent && !equalSequenceIdentityFields(normalizedApplicationIdentityFields, lower.identityFields) {
diagnostics = append(diagnostics, collectionPolicyConflictDiagnostic(
destination, declaredIdentityLocation,
collectionDeclarationLocation(lower.identityLocation, Location{}),
"retained collection identity conflicts with application constraint",
))
}
}
if len(diagnostics) != 0 {
return collectionPolicyResolution{}, canonicalDiagnostics(diagnostics)
}
if declaredIdentityFields != nil {
result.policy.identityFields = declaredIdentityFields
result.policy.identityPresent = true
result.policy.identityLocation = cloneLocation(declaredIdentityLocation)
} else if lower != nil && lower.identityPresent {
result.policy.identityFields = cloneStrings(lower.identityFields)
result.policy.identityPresent = true
result.policy.identityLocation = cloneLocation(lower.identityLocation)
}
if result.applicationIdentityPresent {
result.effectiveIdentityFields = cloneStrings(normalizedApplicationIdentityFields)
} else if result.policy.identityPresent {
result.effectiveIdentityFields = cloneStrings(result.policy.identityFields)
}
if result.modeDeclarationPresent {
result.policy.explicitMode = declaredMode
result.policy.explicitModePresent = true
result.policy.modeLocation = cloneLocation(declaredModeLocation)
} else if lower != nil && lower.explicitModePresent {
result.policy.explicitMode = lower.explicitMode
result.policy.explicitModePresent = true
result.policy.modeLocation = cloneLocation(lower.modeLocation)
}
result.operation = collectionOperationMode(declaredMode, result.policy.explicitMode, len(result.effectiveIdentityFields) != 0)
return result, nil
}
func collectionOperationMode(current, retained sequenceMode, identified bool) sequenceMode {
if current != 0 {
return current
}
if retained != 0 {
return retained
}
if identified {
return sequenceModeUpsert
}
return sequenceModeReplace
}
func cloneSequenceDeclarations(declarations []sequenceDeclarationSpec) []sequenceDeclarationSpec {
if declarations == nil {
return nil
}
cloned := make([]sequenceDeclarationSpec, len(declarations))
for index, declaration := range declarations {
cloned[index] = declaration
cloned[index].path = declaration.path.clone()
cloned[index].destination = declaration.destination.clone()
cloned[index].identityFields = cloneStrings(declaration.identityFields)
cloned[index].identityLocation = cloneLocation(declaration.identityLocation)
cloned[index].modeLocation = cloneLocation(declaration.modeLocation)
}
return cloned
}
func collectionDeclarationLocation(specific *Location, fallback Location) *Location {
if specific != nil {
return cloneLocation(specific)
}
if fallback != (Location{}) {
return cloneLocation(&fallback)
}
return nil
}
func collectionPolicyConflictDiagnostic(path Path, primary, related *Location, message string) Diagnostic {
diagnostic := Diagnostic{
Code: CodeSequenceConflict, Severity: SeverityError,
Path: path.clone(), Message: message, Primary: cloneLocation(primary),
}
if related != nil {
diagnostic.Related = []Location{*cloneLocation(related)}
}
return diagnostic
}

View File

@@ -0,0 +1,258 @@
package engine
import (
"sort"
"gitea.maximumdirect.net/eric/ConfigKit/internal/document"
)
type collectionPolicyScope struct {
collections map[string]collectionPolicyEntry
}
type collectionPolicyEntry struct {
destination Path
policy collectionPolicy
}
type collectionRecordPolicy struct {
owner *collectionRecordOwner
scope collectionPolicyScope
}
// The nonzero field ensures simultaneously live record owners have distinct
// addresses. The token is per-record ownership, not a source or identity key.
type collectionRecordOwner struct {
marker byte
}
type projectedCollectionPolicy struct {
path Path
policy collectionPolicy
}
func newCollectionRecordPolicy() collectionRecordPolicy {
return collectionRecordPolicy{owner: &collectionRecordOwner{marker: 1}}
}
func retainedCollectionRecordPolicy(record collectionRecordPolicy) collectionRecordPolicy {
return collectionRecordPolicy{
owner: record.owner,
scope: cloneCollectionPolicyScope(record.scope),
}
}
func replacedCollectionRecordPolicy() collectionRecordPolicy {
return newCollectionRecordPolicy()
}
func (policy *collectionPolicy) setRecordPolicy(record collectionRecordPolicy) {
if record.owner == nil {
record.owner = newCollectionRecordPolicy().owner
}
if policy.recordPolicies == nil {
policy.recordPolicies = make(map[*collectionRecordOwner]collectionPolicyScope)
}
if _, exists := policy.recordPolicies[record.owner]; !exists {
policy.recordOrder = append(policy.recordOrder, record.owner)
}
policy.recordPolicies[record.owner] = cloneCollectionPolicyScope(record.scope)
}
func (policy *collectionPolicy) setRecordPolicyAt(index int, record collectionRecordPolicy) {
if index < 0 {
return
}
if record.owner == nil {
record.owner = newCollectionRecordPolicy().owner
}
if policy.recordPolicies == nil {
policy.recordPolicies = make(map[*collectionRecordOwner]collectionPolicyScope)
}
for len(policy.recordOrder) <= index {
owner := newCollectionRecordPolicy().owner
policy.recordOrder = append(policy.recordOrder, owner)
policy.recordPolicies[owner] = collectionPolicyScope{}
}
delete(policy.recordPolicies, policy.recordOrder[index])
policy.recordOrder[index] = record.owner
policy.recordPolicies[record.owner] = cloneCollectionPolicyScope(record.scope)
}
func (policy collectionPolicy) recordPolicyAt(index int) (collectionRecordPolicy, bool) {
if index < 0 || index >= len(policy.recordOrder) {
return collectionRecordPolicy{}, false
}
owner := policy.recordOrder[index]
scope, ok := policy.recordPolicies[owner]
if !ok {
return collectionRecordPolicy{}, false
}
return collectionRecordPolicy{owner: owner, scope: cloneCollectionPolicyScope(scope)}, true
}
func collectionPolicyForReplacement(lower *collectionPolicy, current collectionPolicy) collectionPolicy {
result := cloneCollectionPolicy(current)
if !current.explicitModePresent && lower != nil && lower.explicitModePresent {
result.explicitMode = lower.explicitMode
result.explicitModePresent = true
result.modeLocation = cloneLocation(lower.modeLocation)
}
return result
}
// collectionPolicyWithoutValue keeps identity and record ownership because no
// collection value was replaced. A key-only declaration can remain pending
// when no sequence is present, or validate the retained sequence immediately.
func collectionPolicyWithoutValue(
lower *collectionPolicy,
current collectionPolicy,
retainedValue *document.Node,
path Path,
) (collectionPolicy, []Diagnostic) {
result := collectionPolicy{}
if lower != nil {
result = cloneCollectionPolicy(*lower)
}
if lower != nil && lower.identityPresent && current.identityPresent && !equalSequenceIdentityFields(lower.identityFields, current.identityFields) {
return collectionPolicy{}, []Diagnostic{collectionPolicyConflictDiagnostic(
path, current.identityLocation, lower.identityLocation,
"collection identity declaration conflicts with retained identity",
)}
}
if current.identityPresent {
result.identityFields = cloneStrings(current.identityFields)
result.identityPresent = true
result.identityLocation = cloneLocation(current.identityLocation)
}
if current.explicitModePresent {
result.explicitMode = current.explicitMode
result.explicitModePresent = true
result.modeLocation = cloneLocation(current.modeLocation)
}
if current.identityPresent && retainedValue != nil && retainedValue.Kind == document.Sequence {
_, diagnostics := validateSequenceIdentity(retainedValue, path, result.identityFields, sequenceIdentityDiagnosticCodes{
invalid: CodeSequenceInvalid, conflict: CodeSequenceConflict,
})
if len(diagnostics) != 0 {
return collectionPolicy{}, diagnostics
}
}
return result, nil
}
func (scope *collectionPolicyScope) set(destination Path, policy collectionPolicy) {
if scope.collections == nil {
scope.collections = make(map[string]collectionPolicyEntry)
}
scope.collections[destination.String()] = collectionPolicyEntry{
destination: destination.clone(), policy: cloneCollectionPolicy(policy),
}
}
func (scope collectionPolicyScope) at(destination Path) (collectionPolicy, bool) {
entry, ok := scope.collections[destination.String()]
if !ok {
return collectionPolicy{}, false
}
return cloneCollectionPolicy(entry.policy), true
}
// retireCollectionPoliciesAtOrBelow clears YAML identity and record-owned state
// below a replaced ancestor while retaining independently scoped explicit modes.
func (scope *collectionPolicyScope) retireCollectionPoliciesAtOrBelow(ancestor Path) {
if scope == nil {
return
}
for key, entry := range scope.collections {
if !pathHasPrefix(entry.destination, ancestor) {
continue
}
clearCollectionIdentity(&entry.policy)
scope.collections[key] = entry
}
}
func projectCollectionPolicyScope(scope collectionPolicyScope, prefix Path) []projectedCollectionPolicy {
keys := make([]string, 0, len(scope.collections))
for key := range scope.collections {
keys = append(keys, key)
}
sort.Strings(keys)
var projected []projectedCollectionPolicy
for _, key := range keys {
entry := scope.collections[key]
concrete := appendDestination(prefix, entry.destination)
projected = append(projected, projectedCollectionPolicy{path: concrete, policy: cloneCollectionPolicy(entry.policy)})
for index, owner := range entry.policy.recordOrder {
if recordScope, ok := entry.policy.recordPolicies[owner]; ok {
projected = append(projected, projectCollectionPolicyScope(recordScope, concrete.Index(index))...)
}
}
}
return projected
}
func cloneCollectionPolicyScope(scope collectionPolicyScope) collectionPolicyScope {
if scope.collections == nil {
return collectionPolicyScope{}
}
cloned := collectionPolicyScope{collections: make(map[string]collectionPolicyEntry, len(scope.collections))}
for key, entry := range scope.collections {
cloned.collections[key] = collectionPolicyEntry{
destination: entry.destination.clone(), policy: cloneCollectionPolicy(entry.policy),
}
}
return cloned
}
func cloneCollectionPolicyScopeForInheritance(scope collectionPolicyScope) collectionPolicyScope {
if scope.collections == nil {
return collectionPolicyScope{}
}
cloned := collectionPolicyScope{collections: make(map[string]collectionPolicyEntry, len(scope.collections))}
for key, entry := range scope.collections {
cloned.collections[key] = collectionPolicyEntry{
destination: entry.destination.clone(), policy: cloneCollectionPolicyForInheritance(entry.policy),
}
}
return cloned
}
func cloneCollectionPolicy(policy collectionPolicy) collectionPolicy {
cloned := policy
cloned.identityFields = cloneStrings(policy.identityFields)
cloned.identityLocation = cloneLocation(policy.identityLocation)
cloned.modeLocation = cloneLocation(policy.modeLocation)
if policy.recordOrder != nil {
cloned.recordOrder = append([]*collectionRecordOwner(nil), policy.recordOrder...)
}
if policy.recordPolicies != nil {
cloned.recordPolicies = make(map[*collectionRecordOwner]collectionPolicyScope, len(policy.recordPolicies))
for owner, scope := range policy.recordPolicies {
cloned.recordPolicies[owner] = cloneCollectionPolicyScope(scope)
}
}
return cloned
}
func cloneCollectionPolicyForInheritance(policy collectionPolicy) collectionPolicy {
cloned := policy
cloned.identityFields = cloneStrings(policy.identityFields)
cloned.identityLocation = cloneLocation(policy.identityLocation)
cloned.modeLocation = cloneLocation(policy.modeLocation)
if policy.recordOrder != nil {
cloned.recordOrder = make([]*collectionRecordOwner, 0, len(policy.recordOrder))
}
if policy.recordPolicies != nil {
cloned.recordPolicies = make(map[*collectionRecordOwner]collectionPolicyScope, len(policy.recordPolicies))
for _, sourceOwner := range policy.recordOrder {
owner := newCollectionRecordPolicy().owner
cloned.recordOrder = append(cloned.recordOrder, owner)
if sourceScope, ok := policy.recordPolicies[sourceOwner]; ok {
cloned.recordPolicies[owner] = cloneCollectionPolicyScopeForInheritance(sourceScope)
}
}
}
return cloned
}

View File

@@ -0,0 +1,292 @@
package engine
import (
"reflect"
"testing"
"gitea.maximumdirect.net/eric/ConfigKit/internal/document"
)
func TestCollectionPolicyWithoutValueRetainsIdentityAndMode(t *testing.T) {
lower := collectionPolicy{
identityFields: []string{"id"},
identityPresent: true,
explicitMode: sequenceModeAppend,
explicitModePresent: true,
}
lower.setRecordPolicy(newCollectionRecordPolicy())
current := collectionPolicy{explicitMode: sequenceModeReplace, explicitModePresent: true}
retained, diagnostics := collectionPolicyWithoutValue(&lower, current, nil, Keys("prompts"))
if len(diagnostics) != 0 || !retained.identityPresent || !reflect.DeepEqual(retained.identityFields, []string{"id"}) {
t.Fatalf("no-value replace reset identity: %#v, %#v", retained, diagnostics)
}
if retained.explicitMode != sequenceModeReplace || !retained.explicitModePresent || len(retained.recordOrder) != 1 {
t.Fatalf("no-value policy update lost mode or record ownership: %#v", retained)
}
retainedRecord, _ := retained.recordPolicyAt(0)
lowerRecord, _ := lower.recordPolicyAt(0)
if retainedRecord.owner != lowerRecord.owner {
t.Fatal("no-value policy update changed record ownership")
}
}
func TestCollectionPolicyWithoutValueLeavesAbsentAndNonSequenceDestinationsUnconstrained(t *testing.T) {
current := collectionPolicy{identityFields: []string{"id"}, identityPresent: true}
for _, value := range []*document.Node{nil, parsePolicyNode(t, "value: scalar\n").Mapping[0].Value} {
retained, diagnostics := collectionPolicyWithoutValue(nil, current, value, Keys("prompts"))
if len(diagnostics) != 0 || !retained.identityPresent || !reflect.DeepEqual(retained.identityFields, []string{"id"}) {
t.Fatalf("pending identity at absent/non-sequence destination = %#v, %#v", retained, diagnostics)
}
}
}
func TestCollectionPolicyWithoutValueValidatesRetainedSequenceImmediately(t *testing.T) {
current := collectionPolicy{identityFields: []string{"id"}, identityPresent: true}
valid := parsePolicyNode(t, "items: [{id: one}, {id: two}]\n").Mapping[0].Value
retained, diagnostics := collectionPolicyWithoutValue(nil, current, valid, Keys("prompts"))
if len(diagnostics) != 0 || !retained.identityPresent {
t.Fatalf("valid retained records were rejected: %#v, %#v", retained, diagnostics)
}
invalid := parsePolicyNode(t, "items: [{name: missing-id}]\n").Mapping[0].Value
retained, diagnostics = collectionPolicyWithoutValue(nil, current, invalid, Keys("prompts"))
if !reflect.DeepEqual(retained, collectionPolicy{}) || len(diagnostics) != 1 || diagnostics[0].Code != CodeSequenceInvalid || diagnostics[0].Path.String() != "/prompts/0/id" {
t.Fatalf("invalid retained records = %#v, %#v", retained, diagnostics)
}
}
func TestCollectionPolicyWithoutValueRejectsIdentityChange(t *testing.T) {
lower := collectionPolicy{identityFields: []string{"id"}, identityPresent: true}
current := collectionPolicy{identityFields: []string{"name"}, identityPresent: true}
retained, diagnostics := collectionPolicyWithoutValue(&lower, current, nil, Keys("prompts"))
if !reflect.DeepEqual(retained, collectionPolicy{}) || len(diagnostics) != 1 || diagnostics[0].Code != CodeSequenceConflict {
t.Fatalf("no-value identity change = %#v, %#v", retained, diagnostics)
}
}
func TestCollectionPolicyLifetimePersistenceAndReplacementTable(t *testing.T) {
tests := []struct {
name string
current collectionPolicy
replaceValue bool
wantIdentity []string
wantIdentitySet bool
wantMode sequenceMode
wantRecords int
}{
{
name: "mode-only replace declaration does not reset retained identity",
current: collectionPolicy{
explicitMode: sequenceModeReplace, explicitModePresent: true,
},
wantIdentity: []string{"id"}, wantIdentitySet: true,
wantMode: sequenceModeReplace, wantRecords: 1,
},
{
name: "whole-sequence replacement resets lower identity",
replaceValue: true,
wantIdentitySet: false,
wantMode: sequenceModeAppend,
wantRecords: 0,
},
{
name: "replacement can establish a new identity",
current: collectionPolicy{identityFields: []string{"name"}, identityPresent: true},
replaceValue: true,
wantIdentity: []string{"name"},
wantIdentitySet: true,
wantMode: sequenceModeAppend,
wantRecords: 0,
},
}
for _, test := range tests {
t.Run(test.name, func(t *testing.T) {
lower := collectionPolicy{
identityFields: []string{"id"}, identityPresent: true,
explicitMode: sequenceModeAppend, explicitModePresent: true,
}
lower.setRecordPolicy(newCollectionRecordPolicy())
var got collectionPolicy
if test.replaceValue {
got = collectionPolicyForReplacement(&lower, test.current)
} else {
var diagnostics []Diagnostic
got, diagnostics = collectionPolicyWithoutValue(&lower, test.current, nil, Keys("prompts"))
if len(diagnostics) != 0 {
t.Fatalf("policy diagnostics = %#v", diagnostics)
}
}
if got.identityPresent != test.wantIdentitySet || !reflect.DeepEqual(got.identityFields, test.wantIdentity) || got.explicitMode != test.wantMode || len(got.recordOrder) != test.wantRecords {
t.Fatalf("transition result = %#v", got)
}
})
}
}
func TestCollectionPolicyValueReplacementResetsIdentityButRetainsExplicitMode(t *testing.T) {
lower := collectionPolicy{
identityFields: []string{"id"},
identityPresent: true,
explicitMode: sequenceModeAppend,
explicitModePresent: true,
}
lower.setRecordPolicy(newCollectionRecordPolicy())
current := collectionPolicy{identityFields: []string{"name"}, identityPresent: true}
replaced := collectionPolicyForReplacement(&lower, current)
if !replaced.identityPresent || !reflect.DeepEqual(replaced.identityFields, []string{"name"}) {
t.Fatalf("replacement identity was not reset: %#v", replaced)
}
if replaced.explicitMode != sequenceModeAppend || !replaced.explicitModePresent || len(replaced.recordOrder) != 0 {
t.Fatalf("replacement failed to retain explicit mode or retire lower record policy: %#v", replaced)
}
cleared := collectionPolicyForReplacement(&lower, collectionPolicy{})
if cleared.identityPresent || len(cleared.identityFields) != 0 || cleared.explicitMode != sequenceModeAppend || !cleared.explicitModePresent {
t.Fatalf("replacement without a new key did not clear YAML identity while retaining mode: %#v", cleared)
}
}
func TestCollectionRecordRetentionAndReplacementUseOpaqueOwners(t *testing.T) {
oldRecord := newCollectionRecordPolicy()
oldRecord.scope.set(Keys("steps"), collectionPolicy{identityFields: []string{"id"}, identityPresent: true})
retained := retainedCollectionRecordPolicy(oldRecord)
if retained.owner != oldRecord.owner {
t.Fatal("retained record did not keep its owner")
}
if got, ok := retained.scope.at(Keys("steps")); !ok || !got.identityPresent {
t.Fatalf("retained record lost its local policy: %#v, %t", got, ok)
}
if retained.scope.collections["/steps"].policy.identityFields[0] = "changed"; oldRecord.scope.collections["/steps"].policy.identityFields[0] != "id" {
t.Fatal("retained record policy aliases its source")
}
// A whole-record replacement at the same list position, even with equal
// authored identity/source metadata, receives new ownership and no old rules.
replacement := replacedCollectionRecordPolicy()
if replacement.owner == oldRecord.owner || len(replacement.scope.collections) != 0 {
t.Fatal("replacement record inherited discarded owner policy")
}
}
func TestCollectionPolicyAncestorRetirementPreservesIndependentMode(t *testing.T) {
var scope collectionPolicyScope
owner := newCollectionRecordPolicy()
owner.scope.set(Keys("steps"), collectionPolicy{identityFields: []string{"id"}, identityPresent: true})
scope.set(Keys("catalog", "prompts"), collectionPolicyWithRecords(collectionPolicy{
identityFields: []string{"id"},
identityPresent: true,
explicitMode: sequenceModeAppend,
explicitModePresent: true,
}, owner))
scope.retireCollectionPoliciesAtOrBelow(Keys("catalog"))
policy, ok := scope.at(Keys("catalog", "prompts"))
if !ok || policy.identityPresent || len(policy.recordOrder) != 0 || policy.explicitMode != sequenceModeAppend || !policy.explicitModePresent {
t.Fatalf("ancestor retirement = %#v, %t", policy, ok)
}
reintroduced, diagnostics := collectionPolicyWithoutValue(&policy, collectionPolicy{}, nil, Keys("catalog", "prompts"))
if len(diagnostics) != 0 || reintroduced.identityPresent || reintroduced.explicitMode != sequenceModeAppend {
t.Fatalf("retired identity was resurrected while mode persisted: %#v, %#v", reintroduced, diagnostics)
}
}
func TestEqualOuterIdentitiesHaveDistinctRecordOwners(t *testing.T) {
retained := newCollectionRecordPolicy()
replacement := replacedCollectionRecordPolicy()
if retained.owner == replacement.owner {
t.Fatal("replacement with the same outer identity reused the old owner")
}
if retained.owner == nil || replacement.owner == nil {
t.Fatal("record owner token is missing")
}
}
func TestCollectionPolicyScopesKeepRootAndItemRulesIndependent(t *testing.T) {
var root collectionPolicyScope
root.set(Keys("steps"), collectionPolicy{identityFields: []string{"root-id"}, identityPresent: true})
owner := newCollectionRecordPolicy()
owner.scope.set(Keys("steps"), collectionPolicy{identityFields: []string{"item-id"}, identityPresent: true})
root.set(Keys("items"), collectionPolicyWithRecords(collectionPolicy{}, owner))
root.retireCollectionPoliciesAtOrBelow(Keys("steps"))
rootPolicy, ok := root.at(Keys("steps"))
if !ok || rootPolicy.identityPresent {
t.Fatalf("root-local policy was not retired: %#v", rootPolicy)
}
itemPolicy, ok := root.at(Keys("items"))
if !ok || len(itemPolicy.recordOrder) != 1 {
t.Fatalf("unrelated item owner disappeared: %#v", itemPolicy)
}
itemRecord, _ := itemPolicy.recordPolicyAt(0)
nested, ok := itemRecord.scope.at(Keys("steps"))
if !ok || !nested.identityPresent || !reflect.DeepEqual(nested.identityFields, []string{"item-id"}) {
t.Fatalf("item-local policy was coupled to root destination: %#v", nested)
}
}
func TestCollectionPolicyProjectionUsesConcretePlacement(t *testing.T) {
first := newCollectionRecordPolicy()
first.scope.set(Keys("steps"), collectionPolicy{identityFields: []string{"step"}, identityPresent: true})
second := newCollectionRecordPolicy()
second.scope.set(Keys("steps"), collectionPolicy{explicitMode: sequenceModeAppend, explicitModePresent: true})
var scope collectionPolicyScope
scope.set(Keys("items"), collectionPolicyWithRecords(collectionPolicy{}, first, second))
projected := projectCollectionPolicyScope(scope, Keys("mounted"))
if len(projected) != 3 {
t.Fatalf("projected policies = %#v", projected)
}
want := []string{"/mounted/items", "/mounted/items/0/steps", "/mounted/items/1/steps"}
for index, policy := range projected {
if policy.path.String() != want[index] {
t.Fatalf("projected path[%d] = %q, want %q", index, policy.path.String(), want[index])
}
}
}
func TestCollectionPolicyInheritanceCopiesOwnersAndState(t *testing.T) {
owner := newCollectionRecordPolicy()
owner.scope.set(Keys("steps"), collectionPolicy{identityFields: []string{"id"}, identityPresent: true})
original := collectionPolicyWithRecords(collectionPolicy{}, owner)
copy := cloneCollectionPolicyForInheritance(original)
copyOwner := copy.recordOrder[0]
if copyOwner == owner.owner {
t.Fatal("inheritance copy retained the source record owner")
}
copy.recordPolicies[copyOwner].collections["/steps"].policy.identityFields[0] = "changed"
if owner.scope.collections["/steps"].policy.identityFields[0] != "id" {
t.Fatal("inheritance copy aliases source policy")
}
}
func TestAcquisitionScopeCloneOwnsCollectionPolicyCopy(t *testing.T) {
owner := newCollectionRecordPolicy()
owner.scope.set(Keys("steps"), collectionPolicy{identityFields: []string{"id"}, identityPresent: true})
var scope acquisitionScope
scope.collectionPolicies.set(Keys("items"), collectionPolicyWithRecords(collectionPolicy{}, owner))
cloned := cloneAcquisitionScope(scope)
clonedOwner := cloned.collectionPolicies.collections["/items"].policy.recordOrder[0]
cloned.collectionPolicies.collections["/items"].policy.recordPolicies[clonedOwner].collections["/steps"].policy.identityFields[0] = "changed"
sourceOwner := scope.collectionPolicies.collections["/items"].policy.recordOrder[0]
if scope.collectionPolicies.collections["/items"].policy.recordPolicies[sourceOwner].collections["/steps"].policy.identityFields[0] != "id" {
t.Fatal("acquisition scope clone aliases collection policy")
}
if clonedOwner != owner.owner {
t.Fatal("acquisition scope clone changed record ownership")
}
}
func collectionPolicyWithRecords(policy collectionPolicy, records ...collectionRecordPolicy) collectionPolicy {
for _, record := range records {
policy.setRecordPolicy(record)
}
return policy
}
func parsePolicyNode(t *testing.T, input string) *document.Node {
t.Helper()
parsed, diagnostics := parseSource(Bytes("collection-policy-state.yml", []byte(input)), "collection-policy-state", defaultParseLimits())
if len(diagnostics) != 0 {
t.Fatalf("parse policy value: %#v", diagnostics)
}
return parsed.document
}

View File

@@ -0,0 +1,192 @@
package engine
import (
"reflect"
"testing"
)
func TestResolveCollectionPolicyReconcilesDeclarationsBeforeComposition(t *testing.T) {
declarations := extractSequenceDeclarationsYAML(t, `configkit:
sequences:
- destination: [prompts]
key: [namespace, id]
mode: append
- destination: [prompts]
key: [id, namespace, id]
- destination: [prompts]
mode: append
`, rootDirectiveContextSource).sequences
resolved, diagnostics := resolveCollectionPolicy(Keys("prompts"), declarations, nil, nil)
if len(diagnostics) != 0 {
t.Fatalf("policy diagnostics = %#v", diagnostics)
}
if !resolved.declarationsPresent || !resolved.identityDeclarationPresent || !resolved.modeDeclarationPresent {
t.Fatalf("declaration presence was lost: %#v", resolved)
}
wantFields := []string{"id", "namespace"}
if !reflect.DeepEqual(resolved.policy.identityFields, wantFields) || !reflect.DeepEqual(resolved.effectiveIdentityFields, wantFields) {
t.Fatalf("effective identity = %#v / %#v, want %#v", resolved.policy.identityFields, resolved.effectiveIdentityFields, wantFields)
}
if !resolved.policy.identityPresent || !resolved.policy.explicitModePresent || resolved.policy.explicitMode != sequenceModeAppend || resolved.operation != sequenceModeAppend {
t.Fatalf("resolved explicit policy = %#v, operation %d", resolved.policy, resolved.operation)
}
if len(resolved.declarations) != 3 || resolved.declarations[0].identityLocation == nil || resolved.declarations[2].location.Line == 0 {
t.Fatalf("declaration locations were not retained: %#v", resolved.declarations)
}
}
func TestResolveCollectionPolicyRejectsConflictingPeersAtBothSites(t *testing.T) {
tests := []struct {
name string
body string
}{
{
name: "identity fields",
body: `configkit:
sequences:
- destination: [prompts]
key: id
- destination: [prompts]
key: name
`,
},
{
name: "explicit modes",
body: `configkit:
sequences:
- destination: [prompts]
mode: append
- destination: [prompts]
mode: replace
`,
},
}
for _, test := range tests {
t.Run(test.name, func(t *testing.T) {
declarations := extractSequenceDeclarationsYAML(t, test.body, rootDirectiveContextSource).sequences
resolved, diagnostics := resolveCollectionPolicy(Keys("prompts"), declarations, nil, nil)
if !reflect.DeepEqual(resolved, collectionPolicyResolution{}) || len(diagnostics) != 1 || diagnostics[0].Code != CodeSequenceConflict {
t.Fatalf("resolution/diagnostics = %#v / %#v", resolved, diagnostics)
}
diagnostic := diagnostics[0]
if diagnostic.Path.String() != "/prompts" || diagnostic.Primary == nil || len(diagnostic.Related) != 1 {
t.Fatalf("conflict does not identify both declaration sites: %#v", diagnostic)
}
if diagnostic.Primary.SourceID != "sequence-declarations" || diagnostic.Related[0].SourceID != "sequence-declarations" || diagnostic.Primary.Line == diagnostic.Related[0].Line {
t.Fatalf("conflict locations = %#v and %#v", diagnostic.Primary, diagnostic.Related)
}
})
}
}
func TestResolveCollectionPolicySelectsCurrentThenRetainedExplicitMode(t *testing.T) {
lower := &collectionPolicy{
identityFields: []string{"id"},
identityPresent: true,
explicitMode: sequenceModeAppend,
explicitModePresent: true,
modeLocation: &Location{SourceID: "lower", Line: 2},
}
current := extractSequenceDeclarationsYAML(t, `configkit:
sequences:
- destination: [prompts]
mode: upsert
`, rootDirectiveContextSource).sequences
resolved, diagnostics := resolveCollectionPolicy(Keys("prompts"), current, nil, lower)
if len(diagnostics) != 0 || resolved.operation != sequenceModeUpsert || resolved.policy.explicitMode != sequenceModeUpsert || !resolved.policy.explicitModePresent {
t.Fatalf("current mode did not override retained mode: %#v, %#v", resolved, diagnostics)
}
resolved, diagnostics = resolveCollectionPolicy(Keys("prompts"), nil, nil, lower)
if len(diagnostics) != 0 || resolved.operation != sequenceModeAppend || resolved.policy.explicitMode != sequenceModeAppend || !resolved.policy.explicitModePresent {
t.Fatalf("omitted current mode did not retain lower explicit mode: %#v, %#v", resolved, diagnostics)
}
if !reflect.DeepEqual(resolved.effectiveIdentityFields, []string{"id"}) {
t.Fatalf("retained identity = %#v", resolved.effectiveIdentityFields)
}
}
func TestResolveCollectionPolicyInfersWithoutPersistingMode(t *testing.T) {
keyOnly := extractSequenceDeclarationsYAML(t, `configkit:
sequences:
- destination: [prompts]
key: id
`, rootDirectiveContextSource).sequences
resolved, diagnostics := resolveCollectionPolicy(Keys("prompts"), keyOnly, nil, nil)
if len(diagnostics) != 0 || resolved.operation != sequenceModeUpsert || resolved.policy.explicitModePresent {
t.Fatalf("identity-based mode inference = %#v, %#v", resolved, diagnostics)
}
resolved, diagnostics = resolveCollectionPolicy(Keys("prompts"), nil, []string{"id"}, nil)
if len(diagnostics) != 0 || resolved.operation != sequenceModeUpsert || resolved.policy.identityPresent || !resolved.applicationIdentityPresent {
t.Fatalf("application identity was not kept distinct from YAML policy: %#v, %#v", resolved, diagnostics)
}
noIdentity := extractSequenceDeclarationsYAML(t, `configkit:
sequences:
- destination: [prompts]
`, rootDirectiveContextSource).sequences
resolved, diagnostics = resolveCollectionPolicy(Keys("prompts"), noIdentity, nil, nil)
if len(diagnostics) != 0 || resolved.operation != sequenceModeReplace || resolved.policy.explicitModePresent {
t.Fatalf("unkeyed mode inference = %#v, %#v", resolved, diagnostics)
}
explicitDefault := extractSequenceDeclarationsYAML(t, `configkit:
sequences:
- destination: [prompts]
mode: replace
`, rootDirectiveContextSource).sequences
resolved, diagnostics = resolveCollectionPolicy(Keys("prompts"), explicitDefault, nil, nil)
if len(diagnostics) != 0 || resolved.operation != sequenceModeReplace || !resolved.policy.explicitModePresent {
t.Fatalf("explicit default mode lost its presence: %#v, %#v", resolved, diagnostics)
}
}
func TestResolveCollectionPolicyChecksKeyOnlyAgainstApplicationConstraint(t *testing.T) {
declarations := extractSequenceDeclarationsYAML(t, `configkit:
sequences:
- destination: [prompts]
key: [namespace, id]
`, rootDirectiveContextSource).sequences
resolved, diagnostics := resolveCollectionPolicy(Keys("prompts"), declarations, []string{"id", "namespace", "id"}, nil)
if len(diagnostics) != 0 || resolved.operation != sequenceModeUpsert || !reflect.DeepEqual(resolved.effectiveIdentityFields, []string{"id", "namespace"}) {
t.Fatalf("equivalent key-only declaration was rejected: %#v, %#v", resolved, diagnostics)
}
resolved, diagnostics = resolveCollectionPolicy(Keys("prompts"), declarations, []string{"slug"}, nil)
if len(diagnostics) != 1 || diagnostics[0].Code != CodeSequenceConflict {
t.Fatalf("conflicting key-only declaration = %#v, %#v", resolved, diagnostics)
}
if diagnostics[0].Primary == nil || diagnostics[0].Path.String() != "/prompts" || len(diagnostics[0].Related) != 0 {
t.Fatalf("application conflict diagnostic = %#v", diagnostics[0])
}
}
func TestResolveCollectionPolicyChecksRetainedIdentityAgainstApplicationConstraint(t *testing.T) {
lower := &collectionPolicy{identityFields: []string{"id"}, identityPresent: true}
resolved, diagnostics := resolveCollectionPolicy(Keys("prompts"), nil, []string{"name"}, lower)
if len(diagnostics) != 1 || diagnostics[0].Code != CodeSequenceConflict || diagnostics[0].Path.String() != "/prompts" {
t.Fatalf("retained/application conflict = %#v, %#v", resolved, diagnostics)
}
}
func TestResolveCollectionPolicyRequiresCurrentIdentityToAgreeWithRetainedIdentity(t *testing.T) {
declarations := extractSequenceDeclarationsYAML(t, `configkit:
sequences:
- destination: [prompts]
key: name
`, rootDirectiveContextSource).sequences
lower := &collectionPolicy{
identityFields: []string{"id"},
identityPresent: true,
identityLocation: &Location{SourceID: "lower", Line: 4},
}
resolved, diagnostics := resolveCollectionPolicy(Keys("prompts"), declarations, nil, lower)
if len(diagnostics) != 1 || diagnostics[0].Code != CodeSequenceConflict || diagnostics[0].Path.String() != "/prompts" {
t.Fatalf("current/retained identity conflict = %#v, %#v", resolved, diagnostics)
}
if diagnostics[0].Primary == nil || len(diagnostics[0].Related) != 1 || diagnostics[0].Related[0].SourceID != "lower" {
t.Fatalf("current/retained conflict locations = %#v", diagnostics[0])
}
}

View File

@@ -0,0 +1,81 @@
package engine
import "gitea.maximumdirect.net/eric/ConfigKit/internal/document"
// A true entry replaces the collection itself as well as its descendants;
// false records ordinary ancestor replacement without selecting a collection
// operation at that exact path.
type collectionReplacementPaths map[string]bool
func (paths collectionReplacementPaths) contains(path Path, includeExact bool) bool {
for length := 0; length <= len(path.segments); length++ {
prefix := Path{segments: path.segments[:length]}
inclusive, found := paths[prefix.String()]
if found && (length < len(path.segments) || includeExact && inclusive) {
return true
}
}
return false
}
// lowerCollectionPoliciesForClaims makes replacement eligibility independent of
// declaration order. It removes only old YAML identity/record state; new pending
// declarations and application constraints are reconciled afterward.
func lowerCollectionPoliciesForClaims(
lower collectionPolicyScope,
claims []compositionClaim,
declarations map[string][]sequenceDeclarationSpec,
application sequencePolicy,
) (collectionPolicyScope, collectionReplacementPaths) {
byPath := make(map[string]compositionClaim, len(claims))
rootPath := ""
if len(claims) != 0 {
rootPath = claims[0].path.String()
}
for _, claim := range claims {
byPath[claim.path.String()] = claim
}
replaced := make(collectionReplacementPaths)
for key, claim := range byPath {
old, hasOld := lower.collections[key]
current := declarations[key]
if claim.kind == document.Mapping && (key == rootPath || !hasOld && len(current) == 0) {
continue // Ordinary mapping combination preserves descendants.
}
mode := sequenceMode(0)
identity := old.policy.identityPresent
for _, declaration := range current {
identity = identity || declaration.identityPresent
if mode == 0 && declaration.modePresent {
mode = declaration.mode
}
}
retainedMode := sequenceMode(0)
if old.policy.explicitModePresent {
retainedMode = old.policy.explicitMode
}
_, registered := application.identityFieldsAt(claim.path)
mode = collectionOperationMode(mode, retainedMode, identity || registered)
if mode == sequenceModeReplace {
replaced[key] = true
} else if claim.kind != document.Mapping && claim.kind != document.Sequence {
replaced[key] = false
}
}
result := cloneCollectionPolicyScope(lower)
for key, entry := range result.collections {
if replaced.contains(entry.destination, true) {
clearCollectionIdentity(&entry.policy)
result.collections[key] = entry
}
}
return result, replaced
}
func clearCollectionIdentity(policy *collectionPolicy) {
policy.identityFields = nil
policy.identityPresent = false
policy.identityLocation = nil
policy.recordOrder = nil
policy.recordPolicies = nil
}

View File

@@ -0,0 +1,111 @@
package engine
import (
"errors"
"testing"
)
func TestSourceReplacementRetiresIdentityForEveryValueKind(t *testing.T) {
t.Parallel()
for _, value := range []string{"null", "42", "{}", "[{name: new}]"} {
t.Run(value, func(t *testing.T) {
lower := "configkit:\n sequences: [{destination: [items], key: id}]\nitems: [{id: old}]\n"
main := "configkit:\n sequences: [{destination: [items], key: name, mode: replace}]\nitems: " + value + "\n"
loaded, err := testGroupedLoad(loadRequest[map[string]any]{
main: loadInput{source: Bytes("main", []byte(main))},
underlays: []loadGroup{{inputs: []loadInput{{source: Bytes("lower", []byte(lower))}}}},
})
if err != nil || loaded == nil {
t.Fatalf("replacement retained obsolete identity: %v", err)
}
})
}
}
func TestAncestorRemovalCanEstablishPendingReplacementIdentity(t *testing.T) {
t.Parallel()
for _, inheritance := range []bool{false, true} {
name := "tiers"
if inheritance {
name = "inheritance"
}
t.Run(name, func(t *testing.T) {
var loaded *testResult[map[string]any]
var err error
if inheritance {
loaded, err = testLoad[map[string]any](Bytes("source", []byte(`configkit:
sequences:
- {destination: [base, group, items], key: id}
- {destination: [child, group, items], key: name}
base: {group: {items: [{id: old}]}}
child:
extends: base
group: null
grandchild:
extends: child
group: {items: [{name: new}]}
`)))
} else {
loaded, err = testGroupedLoad(loadRequest[map[string]any]{
main: loadInput{source: Bytes("main", []byte("group: {items: [{name: new}]}\n"))},
underlays: []loadGroup{
{inputs: []loadInput{{source: Bytes("base", []byte("configkit:\n sequences: [{destination: [group, items], key: id}]\ngroup: {items: [{id: old}]}\n"))}}},
{inputs: []loadInput{{source: Bytes("remove", []byte("configkit:\n sequences: [{destination: [group, items], key: name}]\ngroup: null\n"))}}},
},
})
}
if err != nil {
t.Fatal(err)
}
value := loaded.Config
if inheritance {
value = value["grandchild"].(map[string]any)
}
items := value["group"].(map[string]any)["items"].([]any)
if len(items) != 1 || items[0].(map[string]any)["name"] != "new" {
t.Fatalf("reintroduced collection = %#v", items)
}
})
}
}
func TestInheritanceAncestorRetirementDoesNotResurrectOldIdentity(t *testing.T) {
t.Parallel()
_, err := testLoad[map[string]any](Bytes("source", []byte(`configkit:
sequences: [{destination: [base, group, items], key: id}]
base: {group: {items: [{id: old}]}}
child:
extends: base
group: null
grandchild:
extends: child
group: {items: [{name: new}]}
`)))
if err != nil {
t.Fatal(err)
}
}
func TestReplacementRetirementPreservesApplicationConstraintsAndRetainedKeys(t *testing.T) {
t.Parallel()
for _, withValue := range []bool{false, true} {
main := "configkit:\n sequences: [{destination: [items], key: name, mode: replace}]\n"
if withValue {
main += "items: null\n"
}
definition := Definition[map[string]any]{}
if withValue {
definition.sequenceIdentityRegistrations = []sequenceIdentityRegistration{{
selector: sequenceIdentitySelector{literalSequenceSelector("items")}, identityFields: []string{"id"},
}}
}
_, err := testGroupedLoad(loadRequest[map[string]any]{
main: loadInput{source: Bytes("main", []byte(main))}, definition: definition,
underlays: []loadGroup{{inputs: []loadInput{{source: Bytes("lower", []byte("configkit:\n sequences: [{destination: [items], key: id}]\nitems: [{id: old}]\n"))}}}},
})
var loadErr *LoadError
if !errors.As(err, &loadErr) || len(loadErr.Diagnostics()) == 0 || loadErr.Diagnostics()[0].Code != CodeSequenceConflict {
t.Fatalf("retirement bypassed identity agreement: %v", err)
}
}
}

View File

@@ -1,18 +1,43 @@
package engine
import "gitea.maximumdirect.net/eric/ConfigKit/internal/document"
import (
"maps"
"gitea.maximumdirect.net/eric/ConfigKit/internal/document"
)
// composedDocument is the private handoff between source assembly and later
// precedence layers. Claims remain ordered by source and declaration traversal;
// origins retain every source that contributes to a composite mapping.
type composedDocument struct {
root *document.Node
claims []compositionClaim
origins map[string]Origin
overlays []overlayRecord
applications []historyApplication
inputBytes int64
inputNodes int
root *document.Node
acquisition []acquisitionScope
importGraph importInclusionGraph
collectionPolicies collectionPolicyScope
claims []compositionClaim
sequenceRanges []sequenceRange
origins map[string]Origin
overlays []overlayRecord
applications []historyApplication
inputBytes int64
inputNodes int
}
type sequenceHistoryMode uint8
const (
sequenceHistoryReplace sequenceHistoryMode = iota + 1
sequenceHistoryAppend
sequenceHistoryMapped
)
type sequenceHistoryContribution struct {
path Path
mode sequenceHistoryMode
offset int
length int
items []sequenceItemProjection
replacements []sequenceItemReplacement
}
// assemblyAccumulator owns one mutable working document. Acquired trees held by
@@ -29,18 +54,27 @@ func newAssemblyAccumulator(owned *composedDocument) *assemblyAccumulator {
// cloneComposedDocument detaches mutable composition and provenance state;
// history application trees are immutable and retain their existing sharing.
func cloneComposedDocument(base *composedDocument) *composedDocument {
if base == nil {
return nil
}
return &composedDocument{
root: document.Clone(base.root), claims: cloneCompositionClaims(base.claims),
origins: cloneOriginIndex(base.origins), overlays: cloneOverlayRecords(base.overlays),
acquisition: cloneAcquisitionScopes(base.acquisition),
importGraph: base.importGraph.clone(),
collectionPolicies: cloneCollectionPolicyScope(base.collectionPolicies),
sequenceRanges: cloneSequenceRanges(base.sequenceRanges),
origins: cloneOriginIndex(base.origins), overlays: cloneOverlayRecords(base.overlays),
applications: cloneHistoryApplications(base.applications),
inputBytes: base.inputBytes, inputNodes: base.inputNodes,
}
}
type compositionClaim struct {
path Path
kind document.Kind
location Location
node *document.Node // borrowed immutable contribution, not the assembly tree
path Path
kind document.Kind
location Location
sourceIndex int
}
type compositionClaims struct {
@@ -48,16 +82,90 @@ type compositionClaims struct {
byPath map[string][]compositionClaim
}
// sequenceRange records where one source's sequence items were assigned in the
// composed sequence at path. End is exclusive.
type sequenceRange struct {
sourceIndex int
path Path
start int
end int
items []sequenceItemProjection
projection sequenceItemProjectionIndex
}
func (assigned sequenceRange) outputForInput(inputIndex int) (int, bool) {
if assigned.projection.outputByInput != nil {
return assigned.projection.outputForInput(inputIndex)
}
if assigned.items != nil {
output, found := 0, false
for _, item := range assigned.items {
if item.inputIndex == inputIndex && inputIndex >= 0 && item.outputIndex >= 0 {
output, found = item.outputIndex, true
}
}
return output, found
}
if inputIndex < 0 || inputIndex >= assigned.end-assigned.start {
return 0, false
}
return assigned.start + inputIndex, true
}
func (assigned sequenceRange) inputForOutput(outputIndex int) (int, bool) {
if assigned.projection.inputByOutput != nil {
return assigned.projection.inputForOutput(outputIndex)
}
if assigned.items != nil {
input, found := 0, false
for _, item := range assigned.items {
if item.outputIndex == outputIndex && outputIndex >= 0 && item.inputIndex >= 0 {
input, found = item.inputIndex, true
}
}
return input, found
}
if outputIndex < assigned.start || outputIndex >= assigned.end {
return 0, false
}
return outputIndex - assigned.start, true
}
func indexSequenceRange(assigned sequenceRange) sequenceRange {
if assigned.items != nil && assigned.projection.outputByInput == nil && assigned.projection.inputByOutput == nil {
assigned.projection = newSequenceItemProjectionIndex(assigned.items)
}
return assigned
}
// composeDocuments recursively joins disjoint mapping entries. Source order
// controls only output traversal and diagnostics: every non-mapping overlap is
// rejected before a result is assembled.
func composeDocuments(inputs ...*document.Node) (*composedDocument, []Diagnostic) {
return composeDocumentsWithPolicy(sequencePolicy{}, inputs...)
}
// composeDocumentsWithPolicy composes one strict tier using the registered
// sequence rules when policy contains registrations. The ordinary adapter above
// deliberately preserves the existing unregistered behavior for current callers.
func composeDocumentsWithPolicy(policy sequencePolicy, inputs ...*document.Node) (*composedDocument, []Diagnostic) {
return composeDocumentsWithCollectionPolicy(policy, collectionPolicyScope{}, nil, inputs...)
}
// composeDocumentsWithCollectionPolicy resolves collection declarations and
// eligible lower policy before strictly composing completed peer documents.
func composeDocumentsWithCollectionPolicy(
policy sequencePolicy,
lower collectionPolicyScope,
declarations []sequenceDeclarationSpec,
inputs ...*document.Node,
) (*composedDocument, []Diagnostic) {
if len(inputs) == 0 {
return nil, []Diagnostic{compositionInvalidDiagnostic("strict composition requires at least one document", nil)}
}
collected := compositionClaims{byPath: make(map[string][]compositionClaim)}
for _, input := range inputs {
for sourceIndex, input := range inputs {
if input == nil || input.Kind != document.Mapping {
var location *Location
if input != nil {
@@ -66,7 +174,14 @@ func composeDocuments(inputs ...*document.Node) (*composedDocument, []Diagnostic
}
return nil, []Diagnostic{compositionInvalidDiagnostic("strict composition requires mapping document roots", location)}
}
collected.append(input, Path{})
collected.append(input, Path{}, sourceIndex)
}
identityFieldsByPath, collectionPolicies, diagnostics := resolveStrictCollectionPolicies(
collected.ordered, policy, lower, declarations,
)
if len(diagnostics) != 0 {
return nil, diagnostics
}
checked := make(map[string]struct{}, len(collected.byPath))
@@ -77,28 +192,53 @@ func composeDocuments(inputs ...*document.Node) (*composedDocument, []Diagnostic
}
checked[pointer] = struct{}{}
claims := collected.byPath[pointer]
if len(claims) < 2 || allMappingClaims(claims) {
if len(claims) < 2 || allMappingClaims(claims) || (allSequenceClaims(claims) && len(identityFieldsByPath[pointer]) != 0) {
continue
}
return nil, []Diagnostic{compositionConflictDiagnostic(claim.path, claims)}
}
validated, ranges, diagnostics := validateRegisteredSequences(collected.ordered, identityFieldsByPath)
if len(diagnostics) != 0 {
return nil, diagnostics
}
root := document.Clone(inputs[0])
index := new(mappingIndex)
for _, input := range inputs[1:] {
mergeDisjointMappings(root, input, index)
for sourceIndex, input := range inputs[1:] {
mergeComposedMappings(root, input, Path{}, index, sourceIndex+1, identityFieldsByPath, validated)
}
applications := make([]historyApplication, 0, len(inputs))
for _, input := range inputs {
applications = append(applications, historyApplication{layer: LayerBase, value: input})
seenSequences := make(map[string]bool)
rangesBySource := make([][]sequenceRange, len(inputs))
for _, assigned := range ranges {
rangesBySource[assigned.sourceIndex] = append(rangesBySource[assigned.sourceIndex], assigned)
}
origins := compositionOrigins(collected.ordered)
for sourceIndex, input := range inputs {
application := historyApplication{layer: LayerBase, value: input}
for _, assigned := range rangesBySource[sourceIndex] {
pointer := assigned.path.String()
mode := sequenceHistoryAppend
if !seenSequences[pointer] {
mode = sequenceHistoryReplace
}
seenSequences[pointer] = true
application.sequences = append(application.sequences, sequenceHistoryContribution{
path: assigned.path.clone(), mode: mode, offset: assigned.start, length: assigned.end - assigned.start,
})
}
application.sequencesByPath = indexSequenceHistoryContributions(application.sequences)
applications = append(applications, application)
}
origins := projectedCompositionOrigins(inputs, ranges)
completeCompositionOrigins(root, Path{}, origins)
return &composedDocument{
root: root,
claims: cloneCompositionClaims(collected.ordered),
origins: origins,
applications: applications,
root: root,
collectionPolicies: collectionPolicies,
claims: cloneCompositionClaims(collected.ordered),
sequenceRanges: cloneSequenceRanges(ranges),
origins: origins,
applications: applications,
}, nil
}
@@ -121,11 +261,13 @@ func completeCompositionOrigins(node *document.Node, path Path, origins map[stri
}
}
func (c *compositionClaims) append(node *document.Node, path Path) {
func (c *compositionClaims) append(node *document.Node, path Path, sourceIndex int) {
claim := compositionClaim{
path: path.clone(),
kind: node.Kind,
location: publicLocation(node.Location),
node: node,
path: path.clone(),
kind: node.Kind,
location: publicLocation(node.Location),
sourceIndex: sourceIndex,
}
c.ordered = append(c.ordered, claim)
pointer := path.String()
@@ -135,10 +277,203 @@ func (c *compositionClaims) append(node *document.Node, path Path) {
return
}
for _, entry := range node.Mapping {
c.append(entry.Value, path.Key(entry.Key))
c.append(entry.Value, path.Key(entry.Key), sourceIndex)
}
}
func allSequenceClaims(claims []compositionClaim) bool {
for _, claim := range claims {
if claim.kind != document.Sequence {
return false
}
}
return true
}
type validatedSequence struct {
items []*document.Node
}
func resolveStrictCollectionPolicies(
claims []compositionClaim,
applicationPolicy sequencePolicy,
lower collectionPolicyScope,
declarations []sequenceDeclarationSpec,
) (map[string][]string, collectionPolicyScope, []Diagnostic) {
paths := make([]Path, 0, len(claims)+len(declarations))
seen := make(map[string]bool, len(claims)+len(declarations))
valuePresent := make(map[string]bool)
declarationsByPath := make(map[string][]sequenceDeclarationSpec, len(declarations))
for _, claim := range claims {
if len(lower.collections) != 0 {
valuePresent[claim.path.String()] = true
}
if claim.kind != document.Sequence {
continue
}
key := claim.path.String()
if !seen[key] {
seen[key] = true
paths = append(paths, claim.path.clone())
}
}
for _, declaration := range declarations {
key := declaration.destination.String()
declarationsByPath[key] = append(declarationsByPath[key], declaration)
if !seen[key] {
seen[key] = true
paths = append(paths, declaration.destination.clone())
}
}
identityFieldsByPath := make(map[string][]string)
effectiveLower := lower
if len(lower.collections) != 0 {
effectiveLower, _ = lowerCollectionPoliciesForClaims(lower, claims, declarationsByPath, applicationPolicy)
}
collectionPolicies := cloneCollectionPolicyScope(effectiveLower)
var diagnostics []Diagnostic
for _, path := range paths {
key := path.String()
currentDeclarations := declarationsByPath[key]
lowerEntry, hasLower := effectiveLower.collections[key]
var lowerPolicy *collectionPolicy
if hasLower {
copy := cloneCollectionPolicy(lowerEntry.policy)
lowerPolicy = &copy
}
applicationIdentity, _ := applicationPolicy.identityFieldsAt(path)
resolution, found := resolveCollectionPolicy(path, currentDeclarations, applicationIdentity, lowerPolicy)
if len(found) != 0 {
diagnostics = append(diagnostics, found...)
continue
}
if len(resolution.effectiveIdentityFields) != 0 {
identityFieldsByPath[key] = cloneStrings(resolution.effectiveIdentityFields)
}
policyForPath := resolution.policy
if hasLower && !valuePresent[key] {
// A declaration without a new value changes policy metadata but
// leaves retained record ownership untouched.
policyForPath = cloneCollectionPolicy(lowerEntry.policy)
policyForPath.identityFields = cloneStrings(resolution.policy.identityFields)
policyForPath.identityPresent = resolution.policy.identityPresent
policyForPath.identityLocation = cloneLocation(resolution.policy.identityLocation)
policyForPath.explicitMode = resolution.policy.explicitMode
policyForPath.explicitModePresent = resolution.policy.explicitModePresent
policyForPath.modeLocation = cloneLocation(resolution.policy.modeLocation)
}
if collectionPolicies.collections == nil {
collectionPolicies.collections = make(map[string]collectionPolicyEntry)
}
collectionPolicies.collections[key] = collectionPolicyEntry{destination: path.clone(), policy: policyForPath}
}
return identityFieldsByPath, collectionPolicies, canonicalDiagnostics(diagnostics)
}
func validateRegisteredSequences(claims []compositionClaim, identityFieldsByPath map[string][]string) (map[string]map[int]validatedSequence, []sequenceRange, []Diagnostic) {
itemsByPath := make(map[string]map[int]validatedSequence)
identitiesByPath := make(map[string]map[string]document.Location)
lengthsByPath := make(map[string]int)
var ranges []sequenceRange
for _, claim := range claims {
if claim.kind != document.Sequence {
continue
}
identityFields := identityFieldsByPath[claim.path.String()]
if len(identityFields) == 0 {
continue
}
node := claim.node
pathKey := claim.path.String()
identities := identitiesByPath[pathKey]
if identities == nil {
identities = make(map[string]document.Location, len(node.Sequence))
identitiesByPath[pathKey] = identities
}
start := lengthsByPath[pathKey]
contribution := validatedSequence{items: node.Sequence}
records, diagnostics := validateNormalizedSequenceIdentityFrom(node, claim.path, identityFields, sequenceIdentityDiagnosticCodes{
invalid: CodeComposeInvalid, conflict: CodeComposeConflict,
}, start, sequenceStructuralRecord)
if len(diagnostics) != 0 {
return nil, nil, diagnostics
}
byIndex := make([]sequenceIdentityRecord, len(node.Sequence))
for _, record := range records {
byIndex[record.index] = record
}
for _, record := range byIndex {
if first, duplicate := identities[record.tuple]; duplicate {
current := publicLocation(record.location)
return nil, nil, []Diagnostic{{
Code: CodeComposeConflict, Severity: SeverityError,
Path: claim.path.clone(), Message: "registered sequence contains duplicate identities",
Primary: ptrLocation(publicLocation(first)), Related: []Location{current},
}}
}
identities[record.tuple] = record.location
}
if itemsByPath[pathKey] == nil {
itemsByPath[pathKey] = make(map[int]validatedSequence)
}
itemsByPath[pathKey][claim.sourceIndex] = contribution
lengthsByPath[pathKey] = start + len(node.Sequence)
ranges = append(ranges, sequenceRange{
sourceIndex: claim.sourceIndex, path: claim.path.clone(), start: start, end: start + len(node.Sequence),
})
}
return itemsByPath, ranges, nil
}
func mergeComposedMappings(target, incoming *document.Node, path Path, index *mappingIndex, sourceIndex int, identityFieldsByPath map[string][]string, validated map[string]map[int]validatedSequence) {
for _, incomingEntry := range incoming.Mapping {
entryPath := path.Key(incomingEntry.Key)
position := index.find(target, incomingEntry.Key)
if position < 0 {
cloned := incomingEntry
cloned.Value = document.Clone(incomingEntry.Value)
index.append(target, cloned)
continue
}
current := target.Mapping[position].Value
if current.Kind == document.Sequence && incomingEntry.Value.Kind == document.Sequence && len(identityFieldsByPath[entryPath.String()]) != 0 {
contribution := validated[entryPath.String()][sourceIndex]
if contribution.items != nil {
for _, item := range contribution.items {
current.Sequence = append(current.Sequence, document.Clone(item))
}
}
continue
}
mergeDisjointMappingsAtPath(current, incomingEntry.Value, entryPath, index, sourceIndex, identityFieldsByPath, validated)
}
}
func mergeDisjointMappingsAtPath(target, incoming *document.Node, path Path, index *mappingIndex, sourceIndex int, identityFieldsByPath map[string][]string, validated map[string]map[int]validatedSequence) {
if target.Kind != document.Mapping || incoming.Kind != document.Mapping {
return
}
mergeComposedMappings(target, incoming, path, index, sourceIndex, identityFieldsByPath, validated)
}
func cloneSequenceRanges(ranges []sequenceRange) []sequenceRange {
cloned := make([]sequenceRange, len(ranges))
for i, assigned := range ranges {
cloned[i] = assigned
cloned[i].path = assigned.path.clone()
if assigned.items != nil {
cloned[i].items = append([]sequenceItemProjection{}, assigned.items...)
}
cloned[i].projection.outputByInput = maps.Clone(assigned.projection.outputByInput)
cloned[i].projection.inputByOutput = maps.Clone(assigned.projection.inputByOutput)
}
return cloned
}
func allMappingClaims(claims []compositionClaim) bool {
for _, claim := range claims {
if claim.kind != document.Mapping {
@@ -172,18 +507,53 @@ func documentEntryIndex(entries []document.Entry, key string) int {
return -1
}
func compositionOrigins(claims []compositionClaim) map[string]Origin {
origins := make(map[string]Origin, len(claims))
for _, claim := range claims {
pointer := claim.path.String()
origin := origins[pointer]
origin.Layer = LayerBase
origin.Locations = append(origin.Locations, claim.location)
origins[pointer] = origin
func projectedCompositionOrigins(inputs []*document.Node, ranges []sequenceRange) map[string]Origin {
origins := make(map[string]Origin)
sequencesBySource := make([][]sequenceHistoryContribution, len(inputs))
for _, assigned := range ranges {
contribution := sequenceHistoryContribution{
path: assigned.path.clone(), mode: sequenceHistoryAppend,
offset: assigned.start, length: assigned.end - assigned.start,
}
if assigned.items != nil {
contribution.mode = sequenceHistoryMapped
contribution.items = assigned.items
}
sequencesBySource[assigned.sourceIndex] = append(sequencesBySource[assigned.sourceIndex], contribution)
}
for sourceIndex, input := range inputs {
application := historyApplication{value: input, sequences: sequencesBySource[sourceIndex]}
application.sequencesByPath = indexSequenceHistoryContributions(application.sequences)
walkHistoryApplication(application, func(_, effective Path, node *document.Node) {
pointer := effective.String()
origin := origins[pointer]
origin.Layer = LayerBase
origin.Locations = append(origin.Locations, publicLocation(node.Location))
origins[pointer] = origin
})
}
return origins
}
type sequenceRangeKey struct {
sourceIndex int
path string
}
type sequenceRangeIndex map[sequenceRangeKey]sequenceRange
func indexSequenceRanges(ranges []sequenceRange) sequenceRangeIndex {
if len(ranges) == 0 {
return nil
}
index := make(sequenceRangeIndex, len(ranges))
for _, assigned := range ranges {
assigned = indexSequenceRange(assigned)
index[sequenceRangeKey{sourceIndex: assigned.sourceIndex, path: assigned.path.String()}] = assigned
}
return index
}
func applyCompositionOrigins(decoded *decodedConfiguration, origins map[string]Origin) {
for pointer, origin := range origins {
if _, present := decoded.presence[pointer]; present {

View File

@@ -1,12 +1,63 @@
package engine
import (
"fmt"
"reflect"
"strings"
"testing"
"gitea.maximumdirect.net/eric/ConfigKit/internal/document"
)
func TestComposeWideRegisteredCollectionsPreservesEvidenceAndReplay(t *testing.T) {
registrations := make([]sequenceIdentityRegistration, 0, 128)
var inputs []*document.Node
for source := 0; source < 3; source++ {
var text strings.Builder
for collection := 0; collection < 128; collection++ {
key := fmt.Sprintf("records%d", collection)
registrations = append(registrations, sequenceIdentityRegistration{
selector: sequenceIdentitySelector{literalSequenceSelector(key)}, identityFields: []string{"id"},
})
fmt.Fprintf(&text, "%s: [{id: source%d}]\n", key, source)
}
inputs = append(inputs, parseCompositionDocument(t, fmt.Sprintf("source-%d", source), text.String()))
}
policy := mustCompileSequenceIdentityPolicy(t, registrations)
composed, diagnostics := composeDocumentsWithPolicy(policy, inputs...)
if len(diagnostics) != 0 {
t.Fatal(diagnostics)
}
working := &document.Node{Kind: document.Mapping}
for _, application := range composed.applications {
applyHistoryApplication(&working, application, new(mappingIndex))
}
if !configurationValuesEqual(working, composed.root) {
t.Fatal("wide registered collections replay differs from assembly")
}
for collection := 0; collection < 128; collection++ {
path := Keys(fmt.Sprintf("records%d", collection)).Index(2).Key("id")
origin := composed.origins[path.String()]
if len(origin.Locations) != 1 || origin.Locations[0].SourceID != "source-2" {
t.Fatalf("shifted origin at %s = %#v", path.String(), origin)
}
local, ok := historyApplicationLocalPath(composed.applications[2], path)
if !ok || local.String() != Keys(fmt.Sprintf("records%d", collection)).Index(0).Key("id").String() {
t.Fatal("wide local path projection failed")
}
}
clone := cloneComposedDocument(composed)
for _, original := range composed.applications[0].sequences {
pointer := original.path.String()
copy := clone.applications[0].sequencesByPath[pointer]
copy.path.segments[0].key = "changed"
if composed.applications[0].sequencesByPath[pointer].path.String() != pointer {
t.Fatal("history path index aliases cloned state")
}
break
}
}
func TestComposeDocumentsJoinsDisjointMappingsAndTracksClaims(t *testing.T) {
base := parseCompositionDocument(t, "source-1", `services:
api:
@@ -190,6 +241,464 @@ func TestComposeDocumentsRejectsInvalidBoundaries(t *testing.T) {
}
}
func TestComposeDocumentsAppendsRegisteredSequencesAndReturnsRanges(t *testing.T) {
first := parseCompositionDocument(t, "source-1", "records: [{id: '', left: 1}, {id: ' spaced ', right: 1}]\nother: [one]\n")
second := parseCompositionDocument(t, "source-2", "records: [{id: ' ', text: second}]\n")
firstBefore, secondBefore := document.Clone(first), document.Clone(second)
policy := mustCompileSequenceIdentityPolicy(t, []sequenceIdentityRegistration{{selector: sequenceIdentitySelector{literalSequenceSelector("records")}, identityFields: []string{"id"}}})
composed, diagnostics := composeDocumentsWithPolicy(policy, first, second)
if len(diagnostics) != 0 {
t.Fatalf("composeDocumentsWithPolicy() diagnostics = %#v", diagnostics)
}
records, ok := documentAtPath(composed.root, Keys("records"))
if !ok || records.Kind != document.Sequence || len(records.Sequence) != 3 {
t.Fatalf("records = %#v, want three appended records", records)
}
if got := composed.sequenceRanges; !reflect.DeepEqual(got, []sequenceRange{
{sourceIndex: 0, path: Keys("records"), start: 0, end: 2},
{sourceIndex: 1, path: Keys("records"), start: 2, end: 3},
}) {
t.Fatalf("sequence ranges = %#v", got)
}
if !reflect.DeepEqual(first, firstBefore) || !reflect.DeepEqual(second, secondBefore) {
t.Fatal("registered composition mutated an input")
}
composed.root.Mapping[0].Value.Sequence[0].Mapping[1].Value.Text = "changed"
if !reflect.DeepEqual(first, firstBefore) || !reflect.DeepEqual(second, secondBefore) {
t.Fatal("composed sequence aliases an input")
}
}
func TestComposeDocumentsProjectsSequenceOriginsToAssignedIndexes(t *testing.T) {
first := parseCompositionDocument(t, "source-1", `mounted:
records:
- id: first
name: first-name
escaped/~:
"7":
- id: escaped-first
name: escaped-first-name
`)
second := parseCompositionDocument(t, "source-2", `mounted:
records:
- id: second
name: second-name
escaped/~:
"7":
- id: escaped-second
name: escaped-second-name
`)
firstBefore, secondBefore := document.Clone(first), document.Clone(second)
policy := mustCompileSequenceIdentityPolicy(t, []sequenceIdentityRegistration{
{selector: sequenceIdentitySelector{literalSequenceSelector("mounted"), literalSequenceSelector("records")}, identityFields: []string{"id"}},
{selector: sequenceIdentitySelector{literalSequenceSelector("escaped/~"), literalSequenceSelector("7")}, identityFields: []string{"id"}},
})
composed, diagnostics := composeDocumentsWithPolicy(policy, first, second)
if len(diagnostics) != 0 {
t.Fatalf("composeDocumentsWithPolicy() diagnostics = %#v", diagnostics)
}
for _, test := range []struct {
path Path
want Location
}{
{path: Keys("mounted", "records").Index(1).Key("name"), want: Location{SourceID: "source-2", Line: 4, Column: 13}},
{path: Keys("escaped/~", "7").Index(1).Key("name"), want: Location{SourceID: "source-2", Line: 8, Column: 13}},
} {
path, want := test.path, test.want
origin, ok := composed.origins[path.String()]
if !ok || !reflect.DeepEqual(origin.Locations, []Location{want}) {
t.Errorf("origin at %s = %#v, want source-specific location %#v", path, origin, want)
}
}
for _, test := range []struct {
path Path
wantSources []string
}{
{path: Keys("mounted", "records"), wantSources: []string{"source-1", "source-2"}},
{path: Keys("escaped/~", "7"), wantSources: []string{"source-1", "source-2"}},
} {
path, wantSources := test.path, test.wantSources
origin := composed.origins[path.String()]
gotSources := make([]string, len(origin.Locations))
for index, location := range origin.Locations {
gotSources[index] = location.SourceID
}
if !reflect.DeepEqual(gotSources, wantSources) {
t.Errorf("container origin at %s = %#v, want contributors %#v", path, gotSources, wantSources)
}
}
if !reflect.DeepEqual(first, firstBefore) || !reflect.DeepEqual(second, secondBefore) {
t.Fatal("composition projection mutated an input")
}
copy := cloneComposedDocument(composed)
copy.origins[Keys("mounted", "records").Index(1).Key("name").String()].Locations[0].SourceID = "changed"
for index := range copy.claims {
if copy.claims[index].path.String() == "/mounted/records" {
copy.claims[index].path.segments[0].key = "changed"
break
}
}
copy.sequenceRanges[0].path.segments[0].key = "changed"
if got := composed.origins[Keys("mounted", "records").Index(1).Key("name").String()].Locations[0].SourceID; got != "source-2" {
t.Fatalf("copied origin mutation changed source evidence: %q", got)
}
foundClaim := false
for _, claim := range composed.claims {
if claim.path.String() == "/mounted/records" {
foundClaim = true
break
}
}
if !foundClaim {
t.Fatal("copied claim mutation changed source path")
}
if got := composed.sequenceRanges[0].path.String(); got != "/mounted/records" {
t.Fatalf("copied range mutation changed assigned path: %q", got)
}
}
func TestProjectedCompositionOriginsUseNoncontiguousItemMappings(t *testing.T) {
lowerRoot := parseCompositionDocument(t, "lower", `records:
- id: first
label: equal
- id: middle
- id: last
nested: {old: lower}
`)
higherRoot := parseCompositionDocument(t, "higher", `records:
- id: last
nested: {new: higher}
- id: first
label: equal
- id: added
`)
lower, _ := documentAtPath(lowerRoot, Keys("records"))
higher, _ := documentAtPath(higherRoot, Keys("records"))
combined, diagnostics := combineSequence(
lower, higher, sequenceCombinationPolicy(sequenceModeUpsert, "id"),
sequenceCombinationContext{destination: Keys("records")},
)
if len(diagnostics) != 0 {
t.Fatalf("combine diagnostics = %#v", diagnostics)
}
inputs := []*document.Node{lowerRoot, higherRoot}
ranges := []sequenceRange{
{
sourceIndex: 0, path: Keys("records"), start: 0, end: 3,
items: combined.lowerItems,
}, {
sourceIndex: 1, path: Keys("records"), start: 0, end: 3,
items: combined.higherItems,
},
}
origins := projectedCompositionOrigins(inputs, ranges)
if got, want := sequenceIdentityValues(combined.value, "id"), []string{"first", "middle", "last", "added"}; !reflect.DeepEqual(got, want) {
t.Fatalf("combined IDs = %#v, want %#v", got, want)
}
for path, want := range map[string][]string{
"/records/0/label": {"higher"},
"/records/1/id": {"lower"},
"/records/2/nested/new": {"higher"},
"/records/3/id": {"higher"},
"/records/0/nested/new": nil,
"/records/2/nested/old": nil,
} {
origin := origins[path]
var got []string
for _, location := range origin.Locations {
got = append(got, location.SourceID)
}
if !reflect.DeepEqual(got, want) {
t.Errorf("origin sources at %s = %#v, want %#v", path, got, want)
}
}
}
func TestCloneSequenceRangesPreservesPreparedProjection(t *testing.T) {
ranges := []sequenceRange{{
start: 0, end: 1,
projection: newSequenceItemProjectionIndex([]sequenceItemProjection{{inputIndex: 0, outputIndex: 4}}),
}}
cloned := cloneSequenceRanges(ranges)
if output, ok := cloned[0].outputForInput(0); !ok || output != 4 {
t.Fatalf("cloned projection = %d, %v; want output index 4", output, ok)
}
cloned[0].projection.outputByInput[0] = 9
if output, ok := ranges[0].outputForInput(0); !ok || output != 4 {
t.Fatalf("cloned projection aliases original: %d, %v", output, ok)
}
}
func TestComposeDocumentsValidatesRegisteredSequenceSingletons(t *testing.T) {
tests := []struct {
name string
body string
path string
wantCode Code
}{
{name: "nonmapping item", body: "records: [plain]\n", path: "/records/0", wantCode: CodeComposeInvalid},
{name: "missing identity", body: "records: [{name: plain}]\n", path: "/records/0/id", wantCode: CodeComposeInvalid},
}
for _, test := range tests {
t.Run(test.name, func(t *testing.T) {
_, diagnostics := composeDocumentsWithPolicy(
mustCompileSequenceIdentityPolicy(t, []sequenceIdentityRegistration{{selector: sequenceIdentitySelector{literalSequenceSelector("records")}, identityFields: []string{"id"}}}),
parseCompositionDocument(t, "source-1", test.body),
)
if len(diagnostics) != 1 || diagnostics[0].Code != test.wantCode || diagnostics[0].Path.String() != test.path {
t.Fatalf("diagnostics = %#v, want %s at %s", diagnostics, test.wantCode, test.path)
}
if diagnostics[0].Primary == nil {
t.Fatal("malformed sequence diagnostic has no source location")
}
})
}
}
func TestComposeDocumentsUsesLowerIdentityForStrictPeers(t *testing.T) {
path := Keys("records")
lower := collectionPolicyScope{collections: map[string]collectionPolicyEntry{
path.String(): {
destination: path,
policy: collectionPolicy{identityFields: []string{"id"}, identityPresent: true},
},
}}
composed, diagnostics := composeDocumentsWithCollectionPolicy(
sequencePolicy{}, lower, nil,
parseCompositionDocument(t, "source-1", "records: [{id: first}]\n"),
parseCompositionDocument(t, "source-2", "records: [{id: second}]\n"),
)
if len(diagnostics) != 0 {
t.Fatalf("compose strict peers with lower identity: %#v", diagnostics)
}
value, present := documentAtPath(composed.root, path)
if !present || value.Kind != document.Sequence || len(value.Sequence) != 2 {
t.Fatalf("composed records = %#v, %v; want two strict peer records", value, present)
}
resolved, present := composed.collectionPolicies.collections[path.String()]
if !present || !resolved.policy.identityPresent || !reflect.DeepEqual(resolved.policy.identityFields, []string{"id"}) {
t.Fatalf("composed collection policy = %#v, %v; want retained lower identity", resolved, present)
}
clone := cloneComposedDocument(composed)
resolved.policy.identityFields[0] = "mutated"
if !reflect.DeepEqual(clone.collectionPolicies.collections[path.String()].policy.identityFields, []string{"id"}) {
t.Fatal("cloned composition shares mutable collection identity fields")
}
}
func TestComposeDocumentsResolvesDeclarationsBeforePeerComposition(t *testing.T) {
path := Keys("records")
declaration := func(source string, line int, fields ...string) sequenceDeclarationSpec {
location := Location{SourceID: source, Line: line}
return sequenceDeclarationSpec{
destination: path, identityFields: fields, identityPresent: true,
identityLocation: &location,
}
}
_, diagnostics := composeDocumentsWithCollectionPolicy(
sequencePolicy{}, collectionPolicyScope{},
[]sequenceDeclarationSpec{declaration("source-1", 2, "id"), declaration("source-2", 4, "name")},
parseCompositionDocument(t, "source-1", "left: true\n"),
parseCompositionDocument(t, "source-2", "right: true\n"),
)
if len(diagnostics) != 1 || diagnostics[0].Code != CodeSequenceConflict || diagnostics[0].Path.String() != "/records" {
t.Fatalf("conflicting policy-only declarations = %#v", diagnostics)
}
if diagnostics[0].Primary == nil || len(diagnostics[0].Related) != 1 {
t.Fatalf("declaration conflict lacks both locations: %#v", diagnostics[0])
}
composed, diagnostics := composeDocumentsWithCollectionPolicy(
sequencePolicy{}, collectionPolicyScope{},
[]sequenceDeclarationSpec{declaration("source-1", 2, "tenant", "id"), declaration("source-2", 4, "id", "tenant")},
parseCompositionDocument(t, "source-1", "records: [{tenant: true, id: null}, {tenant: \"alpha\", id: 1}]\n"),
parseCompositionDocument(t, "source-2", "records: [{id: 1.0, tenant: \"beta\"}, {id: \"1\", tenant: \"alpha\"}]\n"),
)
if len(diagnostics) != 0 {
t.Fatalf("compose normalized compound identities: %#v", diagnostics)
}
value, present := documentAtPath(composed.root, path)
if !present || len(value.Sequence) != 4 {
t.Fatalf("compound identity records = %#v, %v; want four distinct records", value, present)
}
_, diagnostics = composeDocumentsWithCollectionPolicy(
sequencePolicy{}, collectionPolicyScope{},
[]sequenceDeclarationSpec{declaration("source-1", 2, "id")},
parseCompositionDocument(t, "source-1", "records: [{id: 1}]\n"),
parseCompositionDocument(t, "source-2", "records: [{id: 1.0}]\n"),
)
if len(diagnostics) != 1 || diagnostics[0].Code != CodeComposeConflict || diagnostics[0].Path.String() != "/records" {
t.Fatalf("equivalent numeric peer identities = %#v", diagnostics)
}
}
func TestComposeDocumentsReplacementDoesNotBorrowLowerYAMLIdentity(t *testing.T) {
path := Keys("records")
lower := collectionPolicyScope{collections: map[string]collectionPolicyEntry{
path.String(): {
destination: path,
policy: collectionPolicy{identityFields: []string{"id"}, identityPresent: true},
},
}}
declaration := sequenceDeclarationSpec{destination: path, mode: sequenceModeReplace, modePresent: true}
_, diagnostics := composeDocumentsWithCollectionPolicy(
sequencePolicy{}, lower, []sequenceDeclarationSpec{declaration},
parseCompositionDocument(t, "source-1", "records: [{name: first}]\n"),
parseCompositionDocument(t, "source-2", "records: [{name: second}]\n"),
)
if len(diagnostics) != 1 || diagnostics[0].Code != CodeComposeConflict || diagnostics[0].Path.String() != "/records" {
t.Fatalf("replacement peers borrowing lower identity = %#v", diagnostics)
}
identityReplacement := sequenceDeclarationSpec{
destination: path, identityFields: []string{"name"}, identityPresent: true,
mode: sequenceModeReplace, modePresent: true,
}
composed, diagnostics := composeDocumentsWithCollectionPolicy(
sequencePolicy{}, lower, []sequenceDeclarationSpec{identityReplacement},
parseCompositionDocument(t, "source-1", "records: [{name: first}]\n"),
parseCompositionDocument(t, "source-2", "records: [{name: second}]\n"),
)
if len(diagnostics) != 0 {
t.Fatalf("replacement with a new identity declaration: %#v", diagnostics)
}
resolved := composed.collectionPolicies.collections[path.String()].policy
if !reflect.DeepEqual(resolved.identityFields, []string{"name"}) || !resolved.identityPresent {
t.Fatalf("replacement collection identity = %#v; want name", resolved)
}
_, diagnostics = composeDocumentsWithCollectionPolicy(
mustCompileSequenceIdentityPolicy(t, []sequenceIdentityRegistration{{selector: sequenceIdentitySelector{literalSequenceSelector("records")}, identityFields: []string{"id"}}}), lower,
[]sequenceDeclarationSpec{declaration},
parseCompositionDocument(t, "source-1", "records: [{name: replacement}]\n"),
)
if len(diagnostics) != 1 || diagnostics[0].Code != CodeComposeInvalid || diagnostics[0].Path.String() != "/records/0/id" {
t.Fatalf("replacement ignored application identity constraint = %#v", diagnostics)
}
}
func TestComposeDocumentsReportsAssignedPathForMalformedRegisteredSequenceContribution(t *testing.T) {
_, diagnostics := composeDocumentsWithPolicy(
mustCompileSequenceIdentityPolicy(t, []sequenceIdentityRegistration{{selector: sequenceIdentitySelector{literalSequenceSelector("records")}, identityFields: []string{"id"}}}),
parseCompositionDocument(t, "source-1", "records: [{id: first}]\n"),
parseCompositionDocument(t, "source-2", "records: [{name: malformed}]\n"),
)
if len(diagnostics) != 1 || diagnostics[0].Code != CodeComposeInvalid || diagnostics[0].Path.String() != "/records/1/id" {
t.Fatalf("diagnostics = %#v, want invalid identity field at /records/1/id", diagnostics)
}
if diagnostics[0].Primary == nil || diagnostics[0].Primary.SourceID != "source-2" {
t.Fatalf("malformed item location = %#v, want source-2", diagnostics[0].Primary)
}
}
func TestComposeDocumentsRejectsRegisteredDuplicateIdentities(t *testing.T) {
tests := []struct {
name string
first string
second string
within bool
}{
{name: "within identical bodies", first: "records: [{id: '', value: same}, {id: '', value: same}]\n", within: true},
{name: "within disjoint bodies", first: "records: [{id: same, left: 1}, {id: same, right: 2}]\n", within: true},
{name: "across identical bodies", first: "records: [{id: same, value: same}]\n", second: "records: [{id: same, value: same}]\n"},
{name: "across disjoint bodies", first: "records: [{id: same, left: 1}]\n", second: "records: [{id: same, right: 2}]\n"},
{name: "empty identity across lists", first: "records: [{id: ''}]\n", second: "records: [{id: ''}]\n"},
}
for _, test := range tests {
t.Run(test.name, func(t *testing.T) {
inputs := []*document.Node{parseCompositionDocument(t, "source-1", test.first)}
if !test.within {
inputs = append(inputs, parseCompositionDocument(t, "source-2", test.second))
}
_, diagnostics := composeDocumentsWithPolicy(
mustCompileSequenceIdentityPolicy(t, []sequenceIdentityRegistration{{selector: sequenceIdentitySelector{literalSequenceSelector("records")}, identityFields: []string{"id"}}}), inputs...,
)
if len(diagnostics) != 1 || diagnostics[0].Code != CodeComposeConflict || diagnostics[0].Path.String() != "/records" {
t.Fatalf("diagnostics = %#v, want duplicate conflict at /records", diagnostics)
}
if diagnostics[0].Primary == nil || len(diagnostics[0].Related) != 1 {
t.Fatalf("duplicate locations = %#v", diagnostics[0])
}
for _, secret := range []string{"same", "left", "right", "value"} {
if strings.Contains(diagnostics[0].Message, secret) {
t.Fatalf("diagnostic leaks %q: %q", secret, diagnostics[0].Message)
}
}
})
}
}
func TestComposeDocumentsSkipsMissingAndNonSequenceRegistrations(t *testing.T) {
policy := mustCompileSequenceIdentityPolicy(t, []sequenceIdentityRegistration{
{selector: sequenceIdentitySelector{literalSequenceSelector("absent")}, identityFields: []string{"id"}},
{selector: sequenceIdentitySelector{literalSequenceSelector("not-a-sequence")}, identityFields: []string{"id"}},
{selector: sequenceIdentitySelector{literalSequenceSelector("catalog")}, identityFields: []string{"id"}},
{selector: sequenceIdentitySelector{literalSequenceSelector("catalog"), literalSequenceSelector("records")}, identityFields: []string{"id"}},
})
composed, diagnostics := composeDocumentsWithPolicy(policy, parseCompositionDocument(t, "source-1", `
not-a-sequence: null
catalog:
records: [{id: present}]
`))
if len(diagnostics) != 0 {
t.Fatalf("composeDocumentsWithPolicy() diagnostics = %#v", diagnostics)
}
if len(composed.sequenceRanges) != 1 || composed.sequenceRanges[0].path.String() != "/catalog/records" {
t.Fatalf("sequence ranges = %#v, want only the reached descendant sequence", composed.sequenceRanges)
}
composed, diagnostics = composeDocumentsWithPolicy(
mustCompileSequenceIdentityPolicy(t, []sequenceIdentityRegistration{{selector: sequenceIdentitySelector{literalSequenceSelector("records")}, identityFields: []string{"id"}}}),
parseCompositionDocument(t, "source-1", "records: []\n"),
parseCompositionDocument(t, "source-2", "records: []\n"),
)
if len(diagnostics) != 0 || len(composed.root.Mapping[0].Value.Sequence) != 0 {
t.Fatalf("empty registered sequences = (%#v, %#v)", composed, diagnostics)
}
if got := composed.sequenceRanges; !reflect.DeepEqual(got, []sequenceRange{
{sourceIndex: 0, path: Keys("records"), start: 0, end: 0},
{sourceIndex: 1, path: Keys("records"), start: 0, end: 0},
}) {
t.Fatalf("empty sequence ranges = %#v", got)
}
}
func TestComposeDocumentsKeepsUnregisteredSequenceConflicts(t *testing.T) {
_, diagnostics := composeDocumentsWithPolicy(
mustCompileSequenceIdentityPolicy(t, []sequenceIdentityRegistration{{selector: sequenceIdentitySelector{literalSequenceSelector("registered")}, identityFields: []string{"id"}}}),
parseCompositionDocument(t, "source-1", "unregistered: [one]\n"),
parseCompositionDocument(t, "source-2", "unregistered: [two]\n"),
)
assertCompositionConflict(t, diagnostics, "/unregistered", []string{"source-1", "source-2"})
}
func TestComposeDocumentsKeepsNonSequenceRegisteredOverlapsConflicting(t *testing.T) {
tests := []struct {
name string
first string
second string
}{
{name: "mapping and sequence", first: "records: {id: one}\n", second: "records: [{id: two}]\n"},
{name: "null and sequence", first: "records: null\n", second: "records: [{id: two}]\n"},
{name: "scalar and sequence", first: "records: value\n", second: "records: [{id: two}]\n"},
}
for _, test := range tests {
t.Run(test.name, func(t *testing.T) {
_, diagnostics := composeDocumentsWithPolicy(
mustCompileSequenceIdentityPolicy(t, []sequenceIdentityRegistration{{selector: sequenceIdentitySelector{literalSequenceSelector("records")}, identityFields: []string{"id"}}}),
parseCompositionDocument(t, "source-1", test.first),
parseCompositionDocument(t, "source-2", test.second),
)
assertCompositionConflict(t, diagnostics, "/records", []string{"source-1", "source-2"})
})
}
}
func parseCompositionDocument(t *testing.T, sourceID, input string) *document.Node {
t.Helper()
parsed, diagnostics := parseSource(Bytes(sourceID, []byte(input)), sourceID, defaultParseLimits())

View File

@@ -0,0 +1,77 @@
package engine
import (
"reflect"
"testing"
)
func TestImportAndInheritanceIntegrationsUseEquivalentReadySchedules(t *testing.T) {
names := []string{"a-base", "b-independent", "z-dependent"}
keys := make(map[string]importNodeKey, len(names))
contributions := make([]acquiredContribution, len(names))
for index, name := range names {
key := importNodeKey{
namespaceKind: "host", namespaceAnchor: "/shared",
resourceKind: "file", resourcePath: "/" + name,
}
keys[name] = key
contributions[index] = acquiredContribution{
identity: key,
source: SourceInfo{ID: "source-" + name, Path: name},
}
}
var want []string
for _, reverse := range []bool{false, true} {
graph := newImportInclusionGraph()
orderedNames := append([]string(nil), names...)
if reverse {
orderedNames[0], orderedNames[2] = orderedNames[2], orderedNames[0]
}
for _, name := range orderedNames {
graph.addNode(importGraphNode{key: keys[name], sourceID: "source-" + name, role: importRoleMapping})
}
graph.addEdge(keys["z-dependent"], keys["a-base"], Location{})
scheduled := scheduleContributionSlots(contributions, []int{0, 1, 2}, graph)
got := make([]string, len(scheduled))
for index, contribution := range scheduled {
got[index] = contribution.identity.resourcePath[1:]
}
if !reflect.DeepEqual(got, []string{"a-base", "b-independent", "z-dependent"}) {
t.Fatalf("import schedule reverse=%t: %v", reverse, got)
}
if !reflect.DeepEqual(
[]string{contributions[0].source.ID, contributions[1].source.ID, contributions[2].source.ID},
[]string{"source-a-base", "source-b-independent", "source-z-dependent"},
) {
t.Fatal("scheduling mutated acquisition source records")
}
inheritanceText := "a-base: {value: ready}\nb-independent: {value: independent}\nz-dependent: {extends: a-base}\n"
if reverse {
inheritanceText = "z-dependent: {extends: a-base}\nb-independent: {value: independent}\na-base: {value: ready}\n"
}
scope := parseCompositionDocument(t, "inheritance", inheritanceText)
inheritance, diagnostics := analyzeInheritanceGraph(scope, Path{})
if len(diagnostics) != 0 {
t.Fatalf("analyze inheritance reverse=%t: %#v", reverse, diagnostics)
}
order, diagnostics := inheritance.schedule()
if len(diagnostics) != 0 {
t.Fatalf("schedule inheritance reverse=%t: %#v", reverse, diagnostics)
}
inheritanceNames := make([]string, len(order))
for index, node := range order {
inheritanceNames[index] = inheritance.nodes[node].name
}
if !reflect.DeepEqual(inheritanceNames, got) {
t.Fatalf("equivalent graph schedules differ reverse=%t: imports=%v inheritance=%v", reverse, got, inheritanceNames)
}
if want == nil {
want = got
} else if !reflect.DeepEqual(got, want) {
t.Fatalf("import graph construction changed schedule: got %v, want %v", got, want)
}
}
}

View File

@@ -0,0 +1,200 @@
package engine
import (
"container/heap"
"sort"
)
// dependencyKey is an immutable tuple used to order dependency-graph nodes.
// Callers provide unique keys and valid edge endpoints.
type dependencyKey []string
// dependencyEdge points from a prerequisite to the node that depends on it.
type dependencyEdge struct {
prerequisite int
dependent int
}
type dependencyReadyHeap struct {
nodes []int
keys []dependencyKey
}
func (h dependencyReadyHeap) Len() int { return len(h.nodes) }
func (h dependencyReadyHeap) Less(i, j int) bool {
return dependencyKeyLess(h.keys[h.nodes[i]], h.keys[h.nodes[j]])
}
func (h dependencyReadyHeap) Swap(i, j int) {
h.nodes[i], h.nodes[j] = h.nodes[j], h.nodes[i]
}
func (h *dependencyReadyHeap) Push(value any) {
h.nodes = append(h.nodes, value.(int))
}
func (h *dependencyReadyHeap) Pop() any {
last := len(h.nodes) - 1
node := h.nodes[last]
h.nodes = h.nodes[:last]
return node
}
// dependencyKeyLess compares tuple components bytewise, with a shorter tuple
// sorting first when all of its components match the corresponding prefix.
func dependencyKeyLess(left, right dependencyKey) bool {
for i := 0; i < len(left) && i < len(right); i++ {
if left[i] != right[i] {
return left[i] < right[i]
}
}
return len(left) < len(right)
}
// scheduleDependencies applies Kahn's algorithm, always selecting the
// smallest currently-ready key. Duplicate edges count only once. If scheduling
// stalls, an explicit depth-first traversal of the residual graph returns an
// actual directed cycle, rotated to its smallest key and closed by repeating
// its first node; blocked non-cycle dependents are excluded.
//
// Nodes are visited by precomputed key rank, which also makes each adjacency
// list deterministic without sorting edges. The work is O(E + V log V), with
// O(V + E) additional memory, apart from key copying and tuple comparisons.
func scheduleDependencies(keys []dependencyKey, edges []dependencyEdge) (order, cycle []int) {
ownedKeys := make([]dependencyKey, len(keys))
for i, key := range keys {
ownedKeys[i] = append(dependencyKey(nil), key...)
}
nodeOrder := make([]int, len(ownedKeys))
for i := range nodeOrder {
nodeOrder[i] = i
}
sort.Slice(nodeOrder, func(i, j int) bool {
return dependencyKeyLess(ownedKeys[nodeOrder[i]], ownedKeys[nodeOrder[j]])
})
incoming := make([][]int, len(ownedKeys))
for _, edge := range edges {
incoming[edge.dependent] = append(incoming[edge.dependent], edge.prerequisite)
}
outgoing := make([][]int, len(ownedKeys))
indegree := make([]int, len(ownedKeys))
for _, dependent := range nodeOrder {
seen := make(map[int]struct{}, len(incoming[dependent]))
for _, prerequisite := range incoming[dependent] {
if _, duplicate := seen[prerequisite]; duplicate {
continue
}
seen[prerequisite] = struct{}{}
indegree[dependent]++
// Dependents are visited by key rank, so each outgoing list is
// already ordered by key.
outgoing[prerequisite] = append(outgoing[prerequisite], dependent)
}
}
ready := dependencyReadyHeap{keys: ownedKeys}
for _, node := range nodeOrder {
if indegree[node] == 0 {
ready.nodes = append(ready.nodes, node)
}
}
heap.Init(&ready)
order = make([]int, 0, len(ownedKeys))
for ready.Len() != 0 {
node := heap.Pop(&ready).(int)
order = append(order, node)
for _, dependent := range outgoing[node] {
indegree[dependent]--
if indegree[dependent] == 0 {
heap.Push(&ready, dependent)
}
}
}
if len(order) == len(ownedKeys) {
return order, nil
}
return nil, dependencyCycle(ownedKeys, nodeOrder, outgoing, indegree)
}
type dependencyDFSFrame struct {
node int
next int
}
// dependencyCycle searches the residual graph iteratively to avoid recursion
// depth depending on input size.
func dependencyCycle(keys []dependencyKey, nodeOrder []int, outgoing [][]int, indegree []int) []int {
const (
unvisited = uint8(0)
active = uint8(1)
finished = uint8(2)
)
state := make([]uint8, len(keys))
position := make([]int, len(keys))
for i := range position {
position[i] = -1
}
path := make([]int, 0, len(keys))
frames := make([]dependencyDFSFrame, 0, len(keys))
for _, root := range nodeOrder {
if indegree[root] == 0 || state[root] != unvisited {
continue
}
state[root] = active
position[root] = len(path)
path = append(path, root)
frames = append(frames, dependencyDFSFrame{node: root})
for len(frames) != 0 {
frame := &frames[len(frames)-1]
if frame.next == len(outgoing[frame.node]) {
state[frame.node] = finished
position[frame.node] = -1
path = path[:len(path)-1]
frames = frames[:len(frames)-1]
continue
}
next := outgoing[frame.node][frame.next]
frame.next++
if indegree[next] == 0 {
continue
}
switch state[next] {
case unvisited:
state[next] = active
position[next] = len(path)
path = append(path, next)
frames = append(frames, dependencyDFSFrame{node: next})
case active:
return canonicalDependencyCycle(keys, path[position[next]:])
}
}
}
// A stalled Kahn traversal always leaves a cycle in the residual graph.
return nil
}
func canonicalDependencyCycle(keys []dependencyKey, path []int) []int {
start := 0
for i := 1; i < len(path); i++ {
if dependencyKeyLess(keys[path[i]], keys[path[start]]) {
start = i
}
}
cycle := make([]int, len(path)+1)
for i := range path {
cycle[i] = path[(start+i)%len(path)]
}
cycle[len(path)] = cycle[0]
return cycle
}

View File

@@ -0,0 +1,215 @@
package engine
import (
"reflect"
"testing"
)
func TestScheduleDependenciesOrdersReadyNodes(t *testing.T) {
tests := []struct {
name string
keys []string
edges [][2]string
want []string
}{
{
name: "independent branches",
keys: []string{"branch-c", "branch-a", "branch-b"},
want: []string{"branch-a", "branch-b", "branch-c"},
},
{
name: "unequal chains",
keys: []string{"chain-d", "chain-c", "chain-b", "chain-a"},
edges: [][2]string{
{"chain-a", "chain-b"},
{"chain-b", "chain-c"},
{"chain-c", "chain-d"},
},
want: []string{"chain-a", "chain-b", "chain-c", "chain-d"},
},
{
name: "multiple dependencies",
keys: []string{"application", "right", "base", "left"},
edges: [][2]string{
{"base", "left"}, {"base", "right"},
{"left", "application"}, {"right", "application"},
},
want: []string{"base", "left", "right", "application"},
},
{
name: "shared dependency at equal depths",
keys: []string{"sink", "right", "root", "left"},
edges: [][2]string{
{"root", "left"}, {"root", "right"},
{"left", "sink"}, {"right", "sink"},
},
want: []string{"root", "left", "right", "sink"},
},
{
name: "shared dependency at unequal depths",
keys: []string{"sink", "deep", "side", "middle", "root"},
edges: [][2]string{
{"root", "middle"}, {"middle", "deep"}, {"root", "side"},
{"deep", "sink"}, {"side", "sink"},
},
want: []string{"root", "middle", "deep", "side", "sink"},
},
{
name: "newly ready small key precedes older large key",
keys: []string{"z-ready", "a-new", "b-ready"},
edges: [][2]string{{"b-ready", "a-new"}},
want: []string{"b-ready", "a-new", "z-ready"},
},
{
name: "duplicate edges count once",
keys: []string{"dependent", "prerequisite"},
edges: [][2]string{
{"prerequisite", "dependent"},
{"prerequisite", "dependent"},
},
want: []string{"prerequisite", "dependent"},
},
}
for _, test := range tests {
t.Run(test.name, func(t *testing.T) {
keys, edges, indexes := dependencyGraph(test.keys, test.edges)
order, cycle := scheduleDependencies(keys, edges)
if len(cycle) != 0 {
t.Fatalf("unexpected cycle: %v", dependencyNames(cycle, indexes))
}
if got := dependencyNames(order, indexes); !reflect.DeepEqual(got, test.want) {
t.Fatalf("schedule = %v, want %v", got, test.want)
}
})
}
}
func TestScheduleDependenciesUsesTupleKeys(t *testing.T) {
keys := []dependencyKey{
{"a", "z"},
{"a"},
{"a", "aa"},
{"A"},
}
order, cycle := scheduleDependencies(keys, nil)
if len(cycle) != 0 {
t.Fatalf("unexpected cycle: %v", cycle)
}
want := []int{3, 1, 2, 0}
if !reflect.DeepEqual(order, want) {
t.Fatalf("schedule = %v, want %v", order, want)
}
}
func TestScheduleDependenciesReportsActualCanonicalCycles(t *testing.T) {
tests := []struct {
name string
keys []string
edges [][2]string
want []string
}{
{
name: "self cycle",
keys: []string{"self"},
edges: [][2]string{{"self", "self"}},
want: []string{"self", "self"},
},
{
name: "multi-node cycle excludes blocked dependent",
keys: []string{"blocked", "cycle-b", "cycle-a"},
edges: [][2]string{
{"cycle-a", "cycle-b"},
{"cycle-b", "cycle-a"},
{"cycle-b", "blocked"},
},
want: []string{"cycle-a", "cycle-b", "cycle-a"},
},
}
for _, test := range tests {
t.Run(test.name, func(t *testing.T) {
keys, edges, indexes := dependencyGraph(test.keys, test.edges)
order, cycle := scheduleDependencies(keys, edges)
if len(order) != 0 {
t.Fatalf("unexpected schedule: %v", dependencyNames(order, indexes))
}
if got := dependencyNames(cycle, indexes); !reflect.DeepEqual(got, test.want) {
t.Fatalf("cycle = %v, want %v", got, test.want)
}
})
}
}
func TestScheduleDependenciesIsStableAcrossInsertionPermutations(t *testing.T) {
edges := [][2]string{
{"base", "left"}, {"base", "right"},
{"left", "sink"}, {"right", "sink"},
}
permutations := [][]string{
{"sink", "right", "base", "left"},
{"left", "base", "sink", "right"},
{"right", "left", "base", "sink"},
}
for i, permutation := range permutations {
keys, permutedEdges, indexes := dependencyGraph(permutation, edges)
if i%2 != 0 {
reverseDependencyEdges(permutedEdges)
}
order, cycle := scheduleDependencies(keys, permutedEdges)
if len(cycle) != 0 {
t.Fatalf("permutation %d returned cycle %v", i, dependencyNames(cycle, indexes))
}
if got, want := dependencyNames(order, indexes), []string{"base", "left", "right", "sink"}; !reflect.DeepEqual(got, want) {
t.Fatalf("permutation %d schedule = %v, want %v", i, got, want)
}
}
cycleEdges := [][2]string{{"b", "a"}, {"a", "b"}, {"b", "blocked"}}
cyclePermutations := [][]string{{"blocked", "b", "a"}, {"a", "blocked", "b"}, {"b", "a", "blocked"}}
for i, permutation := range cyclePermutations {
keys, permutedEdges, indexes := dependencyGraph(permutation, cycleEdges)
if i%2 != 0 {
reverseDependencyEdges(permutedEdges)
}
order, cycle := scheduleDependencies(keys, permutedEdges)
if len(order) != 0 {
t.Fatalf("cycle permutation %d returned schedule %v", i, dependencyNames(order, indexes))
}
if got, want := dependencyNames(cycle, indexes), []string{"a", "b", "a"}; !reflect.DeepEqual(got, want) {
t.Fatalf("cycle permutation %d returned %v, want %v", i, got, want)
}
}
}
func dependencyGraph(nodeNames []string, namedEdges [][2]string) ([]dependencyKey, []dependencyEdge, map[int]string) {
keys := make([]dependencyKey, len(nodeNames))
indexes := make(map[string]int, len(nodeNames))
for i, name := range nodeNames {
keys[i] = dependencyKey{name}
indexes[name] = i
}
edges := make([]dependencyEdge, len(namedEdges))
for i, edge := range namedEdges {
edges[i] = dependencyEdge{prerequisite: indexes[edge[0]], dependent: indexes[edge[1]]}
}
byIndex := make(map[int]string, len(nodeNames))
for name, index := range indexes {
byIndex[index] = name
}
return keys, edges, byIndex
}
func dependencyNames(nodes []int, names map[int]string) []string {
result := make([]string, len(nodes))
for i, node := range nodes {
result[i] = names[node]
}
return result
}
func reverseDependencyEdges(edges []dependencyEdge) {
for i, j := 0, len(edges)-1; i < j; i, j = i+1, j-1 {
edges[i], edges[j] = edges[j], edges[i]
}
}

View File

@@ -11,6 +11,33 @@ var (
errDestinationLimit = errors.New("configkit: destination exceeds document limits")
)
type placementMode uint8
const (
placementModeMapping placementMode = iota
placementModeSequenceItem
)
// PlacementModeFromFacade preserves root-owned numeric values until preflight
// can reject unsupported modes.
func PlacementModeFromFacade(value uint8) placementMode { return placementMode(value) }
// PlacementModeForFacade converts private source evidence to the root-owned mode.
func PlacementModeForFacade(value placementMode) uint8 { return uint8(value) }
// InputWithPlacement copies the root-owned mode into a private engine input.
func InputWithPlacement(input Input, value uint8) Input {
input.placementMode = placementMode(value)
return input
}
// OptionsWithPlacement copies root-owned controls into private engine options.
func OptionsWithPlacement[T any](options Options[T], destination Path, value uint8) Options[T] {
options.destination = destination.clone()
options.placementMode = placementMode(value)
return options
}
func normalizeDestination(path Path) (Path, error) {
if !path.valid() {
return Path{}, errInvalidDestination
@@ -29,6 +56,13 @@ func normalizeDestination(path Path) (Path, error) {
return Path{segments: segments}, nil
}
// appendDestination combines validated mapping-key paths with owned segments.
func appendDestination(parent, relative Path) Path {
segments := clonePathSegments(parent.segments, len(relative.segments))
segments = append(segments, relative.segments...)
return Path{segments: segments}
}
func invalidDestinationDiagnostic(destination Path) Diagnostic {
return Diagnostic{
Code: CodeOptionsInvalid, Severity: SeverityError,
@@ -37,27 +71,42 @@ func invalidDestinationDiagnostic(destination Path) Diagnostic {
}
}
func setSourceDestinations(sources []SourceInfo, destination Path) {
for index := range sources {
sources[index].Destination = destination.clone()
}
}
// placeDocument checks all per-document bounds before allocating destination
// wrappers. Aggregate accounting remains the caller's responsibility.
func placeDocument(body *document.Node, destination Path, sourceRoot document.Location, maxDepth, maxNodes int) (Path, *document.Node, error) {
return placeDocumentWithMode(body, destination, placementModeMapping, sourceRoot, maxDepth, maxNodes)
}
// placeDocumentWithMode places a source mapping beneath its literal destination.
// Sequence-item placement adds one sequence containing the complete mapping.
func placeDocumentWithMode(body *document.Node, destination Path, mode placementMode, sourceRoot document.Location, maxDepth, maxNodes int) (Path, *document.Node, error) {
normalized, err := normalizeDestination(destination)
if err != nil {
return Path{}, nil, err
}
if mode != placementModeMapping && mode != placementModeSequenceItem {
return Path{}, nil, errInvalidDestination
}
if mode == placementModeSequenceItem && len(normalized.segments) == 0 {
return Path{}, nil, errInvalidDestination
}
if body == nil {
return normalized, nil, nil
}
if !destinationWithinLimits(body, normalized, maxDepth, maxNodes) {
if mode == placementModeSequenceItem && body.Kind != document.Mapping {
return normalized, nil, errInvalidDestination
}
if !destinationWithinLimitsWithMode(body, normalized, mode, maxDepth, maxNodes) {
return normalized, nil, errDestinationLimit
}
placed := body
if mode == placementModeSequenceItem {
placed = &document.Node{
Kind: document.Sequence, Location: sourceRoot,
Sequence: []*document.Node{placed},
}
}
for index := len(normalized.segments) - 1; index >= 0; index-- {
key := normalized.segments[index].key
placed = &document.Node{
@@ -76,28 +125,49 @@ func placeDocument(body *document.Node, destination Path, sourceRoot document.Lo
// destinationWithinLimits expects a normalized mapping-key destination.
func destinationWithinLimits(body *document.Node, destination Path, maxDepth, maxNodes int) bool {
return destinationWithinLimitsWithMode(body, destination, placementModeMapping, maxDepth, maxNodes)
}
func destinationWithinLimitsWithMode(body *document.Node, destination Path, mode placementMode, maxDepth, maxNodes int) bool {
if body == nil {
return true
}
if maxDepth < 0 || maxNodes < 0 || !destination.valid() {
if maxDepth < 0 || maxNodes < 0 || !destination.valid() || (mode != placementModeMapping && mode != placementModeSequenceItem) {
return false
}
segments := len(destination.segments)
if segments > maxDepth || segments > maxNodes/2 {
sequenceNodes := 0
sequenceDepth := 0
if mode == placementModeSequenceItem {
if segments == 0 {
return false
}
sequenceNodes = 1
sequenceDepth = 1
}
if segments > maxDepth-sequenceDepth || segments > (maxNodes-sequenceNodes)/2 {
return false
}
wrapperNodes := destinationWrapperNodeCount(destination)
wrapperNodes := destinationWrapperNodeCount(destination) + sequenceNodes
for _, segment := range destination.segments {
if segment.kind != pathSegmentKey {
return false
}
}
if documentDepth(body) > maxDepth-segments {
if documentDepth(body) > maxDepth-segments-sequenceDepth {
return false
}
return countInputNodes(body) <= maxNodes-wrapperNodes
}
func destinationWrapperNodeCountForMode(destination Path, mode placementMode) int {
count := destinationWrapperNodeCount(destination)
if mode == placementModeSequenceItem {
count++
}
return count
}
func destinationWrapperNodeCount(destination Path) int {
return 2 * len(destination.segments)
}

View File

@@ -1,6 +1,8 @@
package engine
import (
"os"
"path/filepath"
"testing"
"testing/fstest"
@@ -32,7 +34,7 @@ func TestDestinationPlacementCountsAgainstSharedNodeBudget(t *testing.T) {
t.Run(test.name, func(t *testing.T) {
t.Parallel()
accounting := &importAccounting{nodes: limits.nodes - perInput + test.delta}
composition, _, _, diagnostics := acquireUnderlayGroup(loadGroup{inputs: []loadInput{{
composition, _, _, diagnostics := testAcquireUnderlayGroup(loadGroup{inputs: []loadInput{{
source: empty, destination: destination,
}}}, 1, nil, accounting)
if test.wantError {
@@ -60,12 +62,72 @@ func TestMultipleMountedInputsSharePlacementCharges(t *testing.T) {
perInput := countInputNodes(&document.Node{Kind: document.Mapping}) + destinationWrapperNodeCount(Keys("collection", "one"))
charge := len(inputs) * perInput
accounting := &importAccounting{nodes: limits.nodes - charge}
composition, _, _, diagnostics := acquireUnderlayGroup(loadGroup{inputs: inputs}, 1, nil, accounting)
composition, _, _, diagnostics := testAcquireUnderlayGroup(loadGroup{inputs: inputs}, 1, nil, accounting)
if len(diagnostics) != 0 || composition == nil || accounting.nodes != limits.nodes || composition.inputNodes != charge {
t.Fatalf("shared placement accounting = %#v, %#v, accounting %#v; want charge %d", composition, diagnostics, accounting, charge)
}
}
func TestNestedItemGlobsShareUnderlayNodeBudget(t *testing.T) {
t.Parallel()
directory := t.TempDir()
mainPath := writeImportFile(t, directory, "main.yml", `configkit:
imports:
- glob: children/*.yml
destination: [children]
placement: sequence-item
id: parent
`)
fragmentPath := writeImportFile(t, directory, "children/a.yml", "id: child-a\n")
parseNodes := func(path string) int {
t.Helper()
parsed, diagnostics := parseSource(File(path), "fixture", defaultParseLimits())
if len(diagnostics) != 0 {
t.Fatalf("parse %s: %#v", path, diagnostics)
}
return countInputNodes(parsed.document)
}
destination := Keys("groups")
childDestination := appendDestination(destination, Keys("children"))
otherDestination := Keys("other")
wantNodes := parseNodes(mainPath) + parseNodes(fragmentPath) + countInputNodes(&document.Node{Kind: document.Mapping}) +
destinationWrapperNodeCountForMode(destination, placementModeSequenceItem) +
destinationWrapperNodeCountForMode(childDestination, placementModeSequenceItem) +
destinationWrapperNodeCountForMode(otherDestination, placementModeSequenceItem)
limits := defaultImportLimits()
for _, test := range []struct {
name string
delta int
wantError bool
}{
{name: "at aggregate bound"},
{name: "one node below aggregate bound", delta: 1, wantError: true},
} {
t.Run(test.name, func(t *testing.T) {
accounting := &importAccounting{nodes: limits.nodes - wantNodes + test.delta}
composition, sources, _, diagnostics := testAcquireUnderlayGroup(loadGroup{inputs: []loadInput{{
source: File(mainPath), imports: true, destination: destination, placementMode: placementModeSequenceItem,
}, {
source: Mapping("other", map[string]any{"id": "other"}), destination: otherDestination, placementMode: placementModeSequenceItem,
}}}, 1, nil, accounting)
if test.wantError {
if composition != nil || len(diagnostics) == 0 || diagnostics[0].Code != CodeSourceLimitExceeded {
t.Fatalf("under-budget nested item glob = %#v, %#v", composition, diagnostics)
}
return
}
if composition == nil || len(diagnostics) != 0 || len(sources) != 3 {
t.Fatalf("bounded nested item glob = %#v, sources %#v, diagnostics %#v", composition, sources, diagnostics)
}
if composition.inputNodes != wantNodes || accounting.nodes != limits.nodes+test.delta {
t.Fatalf("nested item node charge = %d/%d, want %d/%d", composition.inputNodes, accounting.nodes, wantNodes, limits.nodes+test.delta)
}
})
}
}
func TestImportedEmptyBodiesChargeEachDestinationWrapper(t *testing.T) {
t.Parallel()
@@ -98,7 +160,7 @@ func TestImportedEmptyBodiesChargeEachDestinationWrapper(t *testing.T) {
t.Run(test.name, func(t *testing.T) {
t.Parallel()
accounting := &importAccounting{nodes: limits.nodes - rawNodes - placementNodes + test.delta}
composition, sources, _, diagnostics := acquireUnderlayGroup(loadGroup{inputs: []loadInput{{
composition, sources, _, diagnostics := testAcquireUnderlayGroup(loadGroup{inputs: []loadInput{{
source: mainSource, imports: true, destination: destination,
}}}, 1, nil, accounting)
if test.wantError {
@@ -120,11 +182,212 @@ func TestImportedEmptyBodiesChargeEachDestinationWrapper(t *testing.T) {
}
}
func TestImportedEmptyBodiesChargeFullRelativeDestinations(t *testing.T) {
t.Parallel()
directory := t.TempDir()
mainPath := writeImportFile(t, directory, "main.yml", `configkit:
imports:
- path: empty.yml
destination: [groups, empty]
`)
fragmentPath := writeImportFile(t, directory, "empty.yml", "{}\n")
main := parseImportMain(t, mainPath)
fragment, diagnostics := parseSource(File(fragmentPath), "source-2", defaultParseLimits())
if len(diagnostics) != 0 {
t.Fatalf("empty fragment diagnostics = %#v", diagnostics)
}
entryDestination := Keys("collections", "entry")
importDestination := appendDestination(entryDestination, Keys("groups", "empty"))
wantNodes := countInputNodes(main.document) + countInputNodes(fragment.document) +
destinationWrapperNodeCount(entryDestination) + destinationWrapperNodeCount(importDestination)
limits := defaultImportLimits()
for _, test := range []struct {
name string
delta int
wantError bool
}{
{name: "below aggregate bound", delta: -1, wantError: true},
{name: "at aggregate bound"},
{name: "above aggregate bound", delta: 1},
} {
t.Run(test.name, func(t *testing.T) {
currentLimits := limits
currentLimits.nodes = wantNodes + test.delta
accounting := &importAccounting{}
composed, sources, diagnostics := loadImportedDocumentsTracked(
File(mainPath), nil, main, entryDestination, nil, currentLimits, accounting, nil, nil,
)
if test.wantError {
if composed != nil || len(diagnostics) != 1 || diagnostics[0].Code != CodeImportLimitExceeded {
t.Fatalf("below-bound relative placement = %#v, %#v", composed, diagnostics)
}
return
}
if len(diagnostics) != 0 || composed == nil || len(sources) != 2 {
t.Fatalf("bounded relative placement = %#v, %#v, %#v", composed, sources, diagnostics)
}
if composed.inputNodes != wantNodes || accounting.nodes != wantNodes {
t.Fatalf("relative placement node charge = %d/%d, want %d", composed.inputNodes, accounting.nodes, wantNodes)
}
if sources[1].Destination.String() != importDestination.String() {
t.Fatalf("empty import destination = %q, want %q", sources[1].Destination.String(), importDestination.String())
}
if node, present := documentAtPath(composed.root, importDestination); !present || node.Kind != document.Mapping || len(node.Mapping) != 0 {
t.Fatalf("empty relative import body = %#v, present %v", node, present)
}
})
}
}
func TestGlobMatchesChargeTheirSharedRelativeDestination(t *testing.T) {
t.Parallel()
directory := t.TempDir()
mainPath := writeImportFile(t, directory, "main.yml", `configkit:
imports:
- glob: fragments/*.yml
destination: [groups, empty]
`)
fragmentPaths := []string{
writeImportFile(t, directory, "fragments/a.yml", "{}\n"),
writeImportFile(t, directory, "fragments/b.yml", "{}\n"),
writeImportFile(t, directory, "fragments/c.yml", "{}\n"),
}
main := parseImportMain(t, mainPath)
fragment, diagnostics := parseSource(File(fragmentPaths[0]), "source-fragment", defaultParseLimits())
if len(diagnostics) != 0 {
t.Fatalf("glob fragment diagnostics = %#v", diagnostics)
}
entryDestination := Keys("collections", "entry")
importDestination := appendDestination(entryDestination, Keys("groups", "empty"))
wantNodes := countInputNodes(main.document) + len(fragmentPaths)*countInputNodes(fragment.document) +
destinationWrapperNodeCount(entryDestination) + len(fragmentPaths)*destinationWrapperNodeCount(importDestination)
limits := defaultImportLimits()
for _, test := range []struct {
name string
delta int
wantError bool
}{
{name: "below aggregate bound", delta: -1, wantError: true},
{name: "at aggregate bound"},
{name: "above aggregate bound", delta: 1},
} {
t.Run(test.name, func(t *testing.T) {
currentLimits := limits
currentLimits.nodes = wantNodes + test.delta
accounting := &importAccounting{}
composed, sources, diagnostics := loadImportedDocumentsTracked(
File(mainPath), nil, main, entryDestination, nil, currentLimits, accounting, nil, nil,
)
if test.wantError {
if composed != nil || len(diagnostics) != 1 || diagnostics[0].Code != CodeImportLimitExceeded {
t.Fatalf("below-bound glob placement = %#v, %#v", composed, diagnostics)
}
return
}
if len(diagnostics) != 0 || composed == nil || len(sources) != len(fragmentPaths)+1 {
t.Fatalf("bounded glob placement = %#v, %#v, %#v", composed, sources, diagnostics)
}
if composed.inputNodes != wantNodes || accounting.nodes != wantNodes {
t.Fatalf("glob relative placement node charge = %d/%d, want %d", composed.inputNodes, accounting.nodes, wantNodes)
}
for index, source := range sources[1:] {
if source.Destination.String() != importDestination.String() {
t.Errorf("glob source %d destination = %q, want %q", index, source.Destination.String(), importDestination.String())
}
}
if node, present := documentAtPath(composed.root, importDestination); !present || node.Kind != document.Mapping || len(node.Mapping) != 0 {
t.Fatalf("empty glob contributions = %#v, present %v", node, present)
}
})
}
}
func TestRelativeImportDestinationUsesAccumulatedDocumentDepth(t *testing.T) {
t.Parallel()
directory := t.TempDir()
mainPath := writeImportFile(t, directory, "main.yml", "configkit: {imports: [{path: fragment.yml, destination: [extra]}]}\n")
writeImportFile(t, directory, "fragment.yml", "value: nested\n")
destination := Path{segments: make([]pathSegment, maxDocumentDepth)}
for index := range destination.segments {
destination.segments[index] = pathSegment{kind: pathSegmentKey, key: "entry"}
}
_, err := LoadLayered(
Input{Source: File(mainPath), Imports: true, Destination: destination}, testSecretBinding(),
LayeredOptions[map[string]any]{},
)
loadError, ok := err.(*LoadError)
if !ok || len(loadError.Diagnostics()) != 1 || loadError.Diagnostics()[0].Code != CodeImportLimitExceeded {
t.Fatalf("accumulated depth result = %v", err)
}
sources := loadError.Sources()
if len(sources) != 2 || len(sources[0].Destination.segments) != maxDocumentDepth || len(sources[1].Destination.segments) != maxDocumentDepth+1 {
t.Fatalf("depth failure source destinations = %#v", sources)
}
}
func TestAbsentOptionalImportsDoNotChargeUnusedDeepDestinations(t *testing.T) {
t.Parallel()
destination := Path{segments: make([]pathSegment, maxDocumentDepth)}
for index := range destination.segments {
destination.segments[index] = pathSegment{kind: pathSegmentKey, key: "entry"}
}
for _, test := range []struct {
name string
body string
setup func(*testing.T, string)
}{
{
name: "optional missing path",
body: "configkit: {imports: [{path: missing.yml, destination: [unused]}]}\n",
},
{
name: "optional unmatched glob",
body: "configkit: {imports: [{glob: empty/*.yml, destination: [unused]}]}\n",
setup: func(t *testing.T, directory string) {
if err := os.Mkdir(filepath.Join(directory, "empty"), 0o755); err != nil {
t.Fatal(err)
}
},
},
} {
t.Run(test.name, func(t *testing.T) {
directory := t.TempDir()
if test.setup != nil {
test.setup(t, directory)
}
mainPath := writeImportFile(t, directory, "main.yml", test.body)
main := parseImportMain(t, mainPath)
limits := defaultImportLimits()
accounting := &importAccounting{}
composed, sources, diagnostics := loadImportedDocumentsTracked(
File(mainPath), nil, main, destination, nil, limits, accounting, nil, nil,
)
if len(diagnostics) != 0 || composed == nil || len(sources) != 1 {
t.Fatalf("absent optional import = %#v, %#v, %#v", composed, sources, diagnostics)
}
wantNodes := countInputNodes(main.document) + destinationWrapperNodeCount(destination)
if composed.inputNodes != wantNodes || accounting.nodes != wantNodes {
t.Fatalf("absent optional node charge = %d/%d, want %d", composed.inputNodes, accounting.nodes, wantNodes)
}
if node, present := documentAtPath(composed.root, destination); !present || node.Kind != document.Mapping || len(node.Mapping) != 0 {
t.Fatalf("empty entry body = %#v, present %v", node, present)
}
})
}
}
func TestNoSourceAndRootPlacementAddNoWrapperCharges(t *testing.T) {
t.Parallel()
accounting := &importAccounting{}
composition, sources, _, diagnostics := acquireUnderlayGroup(loadGroup{inputs: []loadInput{
composition, sources, _, diagnostics := testAcquireUnderlayGroup(loadGroup{inputs: []loadInput{
{source: NoSource(), destination: Keys("absent")},
{source: Mapping("root", map[string]any{})},
}}, 1, nil, accounting)
@@ -168,7 +431,13 @@ func TestSelectedOverlayAndCLIUsePlacementNodeCharges(t *testing.T) {
overrides: []Override{override},
}
accounting := &importAccounting{nodes: limits.nodes - baseNodes - overrideNodes + 1}
_, diagnostics := assembleLayeredInput(request, assembledInput{}, accounting)
input, diagnostics := assembleLayeredInput(request, assembledInput{}, accounting)
if len(diagnostics) != 0 {
t.Fatalf("assembly diagnostics = %#v", diagnostics)
}
_, diagnostics = preparePostStructuralOverrides(overridePreparationInput{
root: input.document, inputBytes: accounting.bytes, inputNodes: accounting.nodes,
}, input.sources, request.overrides, nil, limits)
if len(diagnostics) != 1 || diagnostics[0].Code != CodeOverrideLimitExceeded {
t.Fatalf("override diagnostics = %#v", diagnostics)
}

View File

@@ -0,0 +1,211 @@
package engine
import (
"bytes"
"fmt"
"reflect"
"strings"
"testing"
)
func TestRelativeImportsFeedFinalInheritanceAndInspectionLifecycle(t *testing.T) {
t.Parallel()
type entry struct {
Extends string `yaml:"extends"`
Label string `yaml:"label"`
Token *Secret `yaml:"token" configkit:"secret"`
Dynamic string `yaml:"dynamic"`
Derived string `yaml:"derived"`
Height int `yaml:"height"`
}
type configuration struct {
Catalog struct {
Entries map[string]entry `yaml:"entries"`
} `yaml:"catalog"`
}
load := func(dynamic string) *testResult[configuration] {
t.Helper()
directory := t.TempDir()
mainPath := writeImportFile(t, directory, "entry.yml", `configkit:
imports:
- path: parent.yml
destination: [entries]
- path: child.yml
destination: [entries]
`)
writeImportFile(t, directory, "parent.yml", `parent:
label: lower
token: PARENT_TOKEN
height: 1
`)
writeImportFile(t, directory, "child.yml", fmt.Sprintf(`child:
extends: parent
label: child
dynamic: %s
height: 9
`, dynamic))
var defaultsCalls, resolveCalls, validateCalls int
secretPaths := make(map[string]bool)
lookupCalls := make(map[string]int)
request := loadRequest[configuration]{
main: loadInput{
source: Bytes("main", []byte("parent: {label: final, height: 4}\n")),
destination: Keys("catalog", "entries"),
},
underlays: []loadGroup{{inputs: []loadInput{{
source: File(mainPath), imports: true, destination: Keys("catalog"),
}}}},
definition: Definition[configuration]{
Defaults: func() configuration {
defaultsCalls++
var defaults configuration
defaults.Catalog.Entries = map[string]entry{"fallback": {Label: "default"}}
return defaults
},
Resolve: func(config *configuration, resolution *Resolution) error {
resolveCalls++
child := config.Catalog.Entries["child"]
child.Derived = child.Label + ":" + child.Dynamic + ":" + fmt.Sprint(child.Height)
config.Catalog.Entries["child"] = child
resolution.Record(Keys("catalog", "entries", "child", "derived"), ChangeNormalization, "derive final child summary", Keys("catalog", "entries", "child", "label"), Keys("catalog", "entries", "child", "dynamic"), Keys("catalog", "entries", "child", "height"))
return nil
},
Validate: func(config *configuration, validation *Validation) {
validateCalls++
parent := config.Catalog.Entries["parent"]
child := config.Catalog.Entries["child"]
if parent.Label != "final" || parent.Height != 4 || child.Label != "child" || child.Height != 9 || child.Derived != child.Label+":"+child.Dynamic+":9" || child.Token == nil || !child.Token.IsResolved() || child.Token.Value() != "parent-secret-canary" {
validation.Error(Keys("catalog", "entries", "child"), "final imported configuration was not available to validation")
}
},
Secret: func(path Path) bool {
secretPaths[path.String()] = true
return path.String() == "/catalog/entries/child/dynamic"
},
},
}
loaded, err := loadGroupedWithSecretLookup(request, testSecretBinding(), func(name string) (string, bool) {
lookupCalls[name]++
if name == "PARENT_TOKEN" {
return "parent-secret-canary", true
}
return "", false
})
if err != nil {
if loadError, ok := err.(*LoadError); ok {
t.Fatalf("relative import lifecycle diagnostics: %#v", loadError.Diagnostics())
}
t.Fatalf("relative import lifecycle: %v", err)
}
if defaultsCalls != 1 || resolveCalls != 1 || validateCalls != 1 || lookupCalls["PARENT_TOKEN"] != 1 {
t.Fatalf("lifecycle calls defaults=%d resolve=%d validate=%d lookups=%#v", defaultsCalls, resolveCalls, validateCalls, lookupCalls)
}
if !secretPaths["/catalog/entries/child/dynamic"] {
t.Fatalf("secret classifier did not see effective paths: %#v", secretPaths)
}
return testLoaded(loaded)
}
left := load("LEFT-DYNAMIC-CANARY")
child := left.Config.Catalog.Entries["child"]
if child.Extends != "" || child.Label != "child" || child.Height != 9 || child.Derived != "child:LEFT-DYNAMIC-CANARY:9" || child.Token == nil || child.Token.Value() != "parent-secret-canary" {
t.Fatalf("resolved imported child = %#v", child)
}
if left.Config.Catalog.Entries["parent"].Label != "final" || left.Config.Catalog.Entries["parent"].Height != 4 || left.Config.Catalog.Entries["fallback"].Label != "default" {
t.Fatalf("final parent/default shape = %#v", left.Config.Catalog.Entries)
}
childTokenPath := Keys("catalog", "entries", "child", "token")
childToken, found := left.Inspection.Explain(childTokenPath)
childTokenInfo, tokenInfoFound := left.Inspection.Metadata().Lookup(childTokenPath)
if !found || !tokenInfoFound || !childToken.Effective.Redacted || strings.Contains(childToken.Effective.YAML, "parent-secret-canary") || len(childTokenInfo.Origin.Inheritance) != 1 {
t.Fatalf("inherited field explanation = %#v, %v", childToken, found)
}
var explanation bytes.Buffer
if err := left.Inspection.WriteExplanation(&explanation, childTokenPath); err != nil || strings.Contains(explanation.String(), "parent-secret-canary") || strings.Contains(explanation.String(), "LEFT-DYNAMIC-CANARY") {
t.Fatalf("safe explanation = %q, %v", explanation.String(), err)
}
labelHistory := left.Inspection.Metadata().History(Keys("catalog", "entries", "parent", "label"))
if len(labelHistory) < 2 {
t.Fatalf("parent label history omitted replaced contribution: %#v", labelHistory)
}
derived, found := left.Inspection.Explain(Keys("catalog", "entries", "child", "derived"))
if !found || !derived.Effective.Redacted || strings.Contains(derived.Effective.YAML, "LEFT-DYNAMIC-CANARY") || len(derived.History) == 0 || derived.History[len(derived.History)-1].Origin.Operation != ChangeNormalization {
t.Fatalf("recorded derived field explanation = %#v, %v", derived, found)
}
right := load("RIGHT-DYNAMIC-CANARY")
differences, err := Diff(left.Inspection, right.Inspection)
if err != nil {
t.Fatal(err)
}
seen := make(map[string]bool)
for _, difference := range differences {
path := difference.Path.String()
seen[path] = true
if !difference.Left.Redacted || !difference.Right.Redacted || !difference.HiddenChanged || strings.Contains(difference.Left.YAML+difference.Right.YAML, "DYNAMIC-CANARY") || strings.Contains(difference.Left.YAML+difference.Right.YAML, "parent-secret-canary") {
t.Errorf("sensitive difference at %s = %#v", path, difference)
}
}
for _, path := range []string{"/catalog/entries/child/dynamic", "/catalog/entries/child/derived"} {
if !seen[path] {
t.Errorf("missing inherited/derived difference at %s: %#v", path, differences)
}
}
}
func TestRelativeImportMatchesWrappedPlacementAndSafeDiff(t *testing.T) {
t.Parallel()
load := func(relativeImport bool, value string) *testResult[map[string]any] {
t.Helper()
input := Input{Source: NoSource()}
options := LayeredOptions[map[string]any]{}
if relativeImport {
directory := t.TempDir()
mainPath := writeImportFile(t, directory, "main.yml", `configkit:
imports:
- path: fragment.yml
destination: [application]
`)
writeImportFile(t, directory, "fragment.yml", "field: "+value+"\n")
options.Underlays = []Underlay{{Inputs: []Input{{Source: File(mainPath), Imports: true}}}}
} else {
options.Underlays = []Underlay{{Inputs: []Input{{Source: Bytes("wrapped", []byte("application: {field: "+value+"}\n"))}}}}
}
loaded, err := LoadLayered(input, testSecretBinding(), options)
if err != nil {
t.Fatalf("LoadLayered: %v", err)
}
return testLoaded(loaded)
}
relativeBefore := load(true, "before")
relativeAfter := load(true, "after")
wrappedBefore := load(false, "before")
wrappedAfter := load(false, "after")
for _, pair := range [][2]*testResult[map[string]any]{{relativeBefore, wrappedBefore}, {relativeAfter, wrappedAfter}} {
if !reflect.DeepEqual(pair[0].Config, pair[1].Config) {
t.Fatalf("relative and wrapped configurations differ: %#v vs %#v", pair[0].Config, pair[1].Config)
}
for _, result := range pair {
if info, ok := result.Metadata().Lookup(Keys("application", "field")); !ok || !info.Explicit {
t.Fatalf("effective field presence = %#v, %v", info, ok)
}
}
}
relativeDiff, err := Diff(relativeBefore.Inspection, relativeAfter.Inspection)
if err != nil {
t.Fatal(err)
}
wrappedDiff, err := Diff(wrappedBefore.Inspection, wrappedAfter.Inspection)
if err != nil {
t.Fatal(err)
}
if !reflect.DeepEqual(relativeDiff, wrappedDiff) {
t.Fatalf("relative safe diff = %#v, wrapped safe diff = %#v", relativeDiff, wrappedDiff)
}
}

Some files were not shown because too many files have changed in this diff Show More