forked from bai/curriculum-project-hub
c810ea6137
Stand up the Rust implementation of the rule-based checker (the thing that
"stands in Lean's position" at product runtime). Single repo-wide cargo
workspace at the repo root so future components (e.g. an exporter) can reuse
shared crates.
- workspace: 6 member crates under crates/; cph-schema/cph-typst/cph-check/
cph-cli are stubs for later WUs that compile clean today.
- cph-diag: shared diagnostic vocabulary. Severity { Warning, Error } mirrors
Spec.Courseware.Diagnostic.Severity exactly (two-valued, no info/note — a
contract decision documented in-code since there's no CI gate for alignment).
Closed DiagCode set with stable string forms; Diagnostic with optional span +
fix hint; Display renders `error[CODE]: msg / --> file:line:col / hint: …`.
- cph-model: the ADR-0008 loader. Reads manifest.toml ([project]/[info]/ordered
[[parts]]/[targets.*]) + each part's element.toml into an ordered Lesson
(mirrors Lean `Lesson = List (Element P)`). Structure-only: cross-checks
part.kind == element.toml kind, rejects `..` traversal; does NOT do schema
validation (WU-3), content-file existence (WU-3), or typst (WU-4).
`load(root) -> (Option<Lesson>, Vec<Diagnostic>)`: Some even on collectible
part errors, None only on hard manifest failure.
- 13 tests (7 cph-diag, 6 cph-model incl. static fixtures doubling as format
docs). build + test + clippy -D warnings + fmt --check all green.
Judgment call flagged for review: cph-diag has no ManifestMalformed code, so
manifest-structure errors map to SchemaViolation (TODO noted in-code).
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
126 lines
4.1 KiB
Rust
126 lines
4.1 KiB
Rust
//! Integration tests for `cph_model::load`, driven by static fixtures under
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//! `tests/fixtures/`. The fixtures double as documentation of the ADR-0008
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//! on-disk format.
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use std::path::PathBuf;
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use cph_diag::DiagCode;
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use cph_model::load;
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/// Absolute path to a fixture engineering-file root.
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fn fixture(name: &str) -> PathBuf {
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PathBuf::from(env!("CARGO_MANIFEST_DIR"))
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.join("tests/fixtures")
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.join(name)
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}
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#[test]
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fn valid_two_part_lesson_loads_in_order_with_no_errors() {
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let (lesson, diags) = load(&fixture("valid"));
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let lesson = lesson.expect("valid fixture must produce a Lesson");
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assert!(
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diags.is_empty(),
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"valid fixture must have no diagnostics, got: {diags:?}"
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);
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assert_eq!(lesson.project.id, "fixture-valid");
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assert_eq!(lesson.project.name, "valid-2-part");
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assert_eq!(lesson.info.title, "测试课:两个部件");
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assert_eq!(lesson.info.author.as_deref(), Some("范式教育教研组"));
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// Parts preserve declared order: segment first, lemma second.
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assert_eq!(lesson.parts.len(), 2);
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assert_eq!(lesson.parts[0].kind, "segment");
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assert_eq!(lesson.parts[0].path, PathBuf::from("segments/intro"));
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assert_eq!(lesson.parts[0].descriptor.kind, "segment");
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assert_eq!(lesson.parts[1].kind, "lemma");
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assert_eq!(lesson.parts[1].path, PathBuf::from("lemmas/young"));
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assert_eq!(lesson.parts[1].descriptor.kind, "lemma");
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// `source` scalar survives on the lemma descriptor; `kind` is removed.
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let scalars = &lesson.parts[1].descriptor.scalars;
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assert_eq!(
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scalars.get("source").and_then(|v| v.as_str()),
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Some("测试引理")
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);
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assert!(scalars.get("kind").is_none());
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// Targets are collected from [targets.*].
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let mut targets = lesson.targets.clone();
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targets.sort();
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assert_eq!(targets, vec!["student".to_string(), "teacher".to_string()]);
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// Descriptor dir is absolute, anchored under the root.
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assert!(lesson.parts[0].descriptor.dir.is_absolute());
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assert_eq!(
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lesson.parts[0].descriptor.dir,
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lesson.root.join("segments/intro")
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);
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}
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#[test]
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fn missing_part_folder_yields_part_path_missing() {
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let (lesson, diags) = load(&fixture("missing-part"));
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// Still produces a Lesson (loader stays best-effort).
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let lesson = lesson.expect("missing-part fixture must still produce a Lesson");
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assert_eq!(lesson.parts.len(), 2, "both parts are recorded for order");
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let missing: Vec<_> = diags
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.iter()
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.filter(|d| d.code == DiagCode::PartPathMissing)
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.collect();
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assert_eq!(
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missing.len(),
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1,
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"exactly one PartPathMissing expected, got diags: {diags:?}"
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);
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assert_eq!(missing[0].severity, cph_diag::Severity::Error);
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}
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#[test]
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fn kind_mismatch_yields_unknown_kind_diagnostic() {
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let (lesson, diags) = load(&fixture("kind-mismatch"));
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let lesson = lesson.expect("kind-mismatch fixture must still produce a Lesson");
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assert_eq!(lesson.parts.len(), 1);
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let mismatch: Vec<_> = diags
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.iter()
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.filter(|d| d.code == DiagCode::UnknownKind)
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.collect();
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assert_eq!(
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mismatch.len(),
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1,
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"exactly one kind-mismatch diagnostic expected, got: {diags:?}"
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);
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assert!(
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mismatch[0].message.contains("segment") && mismatch[0].message.contains("lemma"),
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"message should name both kinds, got: {}",
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mismatch[0].message
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);
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}
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#[test]
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fn malformed_manifest_is_a_hard_failure() {
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let (lesson, diags) = load(&fixture("malformed-manifest"));
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assert!(
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lesson.is_none(),
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"malformed manifest must be a hard failure (None)"
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);
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assert_eq!(diags.len(), 1, "one hard-failure diagnostic expected");
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assert_eq!(diags[0].code, DiagCode::SchemaViolation);
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assert_eq!(diags[0].severity, cph_diag::Severity::Error);
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}
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#[test]
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fn missing_manifest_is_a_hard_failure() {
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// A directory with no manifest.toml at all.
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let (lesson, diags) = load(&fixture("does-not-exist-at-all"));
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assert!(lesson.is_none());
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assert_eq!(diags.len(), 1);
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assert_eq!(diags[0].code, DiagCode::SchemaViolation);
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}
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