Files
msd-core/tests/capability-state.test.cjs

1813 lines
80 KiB
JavaScript

'use strict';
/**
* capability-state.test.cjs — behavioral tests for capability-state.cjs.
*
* ADR-857 phase 4b.
* Uses node:test + node:assert/strict.
* Pure-function tests (resolveCapabilityState) pass registry+Sets+config
* directly — no I/O. End-to-end tests use cmdCapabilityState + temp dirs.
*/
const { describe, test, before, after } = require('node:test');
const assert = require('node:assert/strict');
const fs = require('node:fs');
const os = require('node:os');
const path = require('node:path');
const { cleanup } = require('./helpers.cjs');
const {
resolveCapabilityState,
isCapabilityActive,
_isSafePropKey,
_loadInstalledSkillsManifest,
_resolveManifest,
} = require('../gsd-core/bin/lib/capability-state.cjs');
// The real capability registry
const realRegistry = require('../gsd-core/bin/lib/capability-registry.cjs');
// ─── Synthetic registry fixture ───────────────────────────────────────────────
/**
* Build a minimal synthetic registry for a single capability with the given
* skills, steps, gates, contributions, configSchema, and optional activationKey.
*/
function makeRegistry({
id = 'test-cap',
tier = 'standard',
skills = [],
steps = [],
gates = [],
contributions = [],
configSchema = {},
activationKey = undefined,
} = {}) {
const capEntry = {
id,
tier,
skills,
steps,
gates,
contributions,
config: {},
};
if (activationKey !== undefined) {
capEntry.activationKey = activationKey;
}
return {
capabilities: {
[id]: capEntry,
},
configSchema,
};
}
// ─── Temp project helpers ─────────────────────────────────────────────────────
let tmpProjectDir;
let tmpProjectDirFalse;
before(() => {
// Project with UI flags enabled
tmpProjectDir = fs.mkdtempSync(path.join(os.tmpdir(), 'cap-state-test-'));
const planningDir = path.join(tmpProjectDir, '.planning');
fs.mkdirSync(planningDir, { recursive: true });
fs.writeFileSync(
path.join(planningDir, 'config.json'),
JSON.stringify({
workflow: {
ui_phase: true,
ui_review: true,
ui_safety_gate: true,
},
}),
'utf8',
);
// Project with all UI flags disabled
tmpProjectDirFalse = fs.mkdtempSync(path.join(os.tmpdir(), 'cap-state-false-'));
fs.mkdirSync(path.join(tmpProjectDirFalse, '.planning'), { recursive: true });
fs.writeFileSync(
path.join(path.join(tmpProjectDirFalse, '.planning'), 'config.json'),
JSON.stringify({
workflow: {
ui_phase: false,
ui_review: false,
ui_safety_gate: false,
},
}),
'utf8',
);
});
after(() => {
cleanup(tmpProjectDir);
cleanup(tmpProjectDirFalse);
});
// ─── _isSafePropKey helper ────────────────────────────────────────────────────
describe('_isSafePropKey', () => {
test('allows normal keys', () => {
assert.strictEqual(_isSafePropKey('ui'), true);
assert.strictEqual(_isSafePropKey('my-cap'), true);
assert.strictEqual(_isSafePropKey('cap123'), true);
});
test('blocks __proto__', () => {
assert.strictEqual(_isSafePropKey('__proto__'), false);
});
test('blocks constructor', () => {
assert.strictEqual(_isSafePropKey('constructor'), false);
});
test('blocks prototype', () => {
assert.strictEqual(_isSafePropKey('prototype'), false);
});
test('blocks non-string', () => {
assert.strictEqual(_isSafePropKey(null), false);
assert.strictEqual(_isSafePropKey(42), false);
assert.strictEqual(_isSafePropKey(undefined), false);
});
});
// ─── resolveCapabilityState — basic shapes ────────────────────────────────────
describe('resolveCapabilityState — basic shapes', () => {
test('empty registry → {capabilities:[]}', () => {
const result = resolveCapabilityState({
registry: { capabilities: {} },
installedSkills: new Set(),
surfacedSkills: new Set(),
config: {},
});
assert.deepStrictEqual(result, { capabilities: [] });
});
test('missing capabilities key → {capabilities:[]}', () => {
const result = resolveCapabilityState({
registry: {},
installedSkills: new Set(),
surfacedSkills: new Set(),
config: {},
});
assert.deepStrictEqual(result, { capabilities: [] });
});
test('null registry → {capabilities:[]}', () => {
const result = resolveCapabilityState({
registry: null,
installedSkills: new Set(),
surfacedSkills: new Set(),
config: {},
});
assert.deepStrictEqual(result, { capabilities: [] });
});
test('array registry → {capabilities:[]}', () => {
const result = resolveCapabilityState({
registry: [],
installedSkills: new Set(),
surfacedSkills: new Set(),
config: {},
});
assert.deepStrictEqual(result, { capabilities: [] });
});
test('malformed capabilities entry is skipped gracefully', () => {
const result = resolveCapabilityState({
registry: { capabilities: { 'bad-cap': 'not-an-object' } },
installedSkills: new Set(),
surfacedSkills: new Set(),
config: {},
});
assert.deepStrictEqual(result, { capabilities: [] });
});
});
// ─── resolveCapabilityState — installed dimension ────────────────────────────
describe('resolveCapabilityState — installed dimension', () => {
test('installedSkills="*" → installed=true for all caps', () => {
const registry = makeRegistry({ skills: ['ui-phase', 'ui-review'] });
const result = resolveCapabilityState({
registry,
installedSkills: '*',
surfacedSkills: new Set(),
config: {},
});
assert.strictEqual(result.capabilities.length, 1);
assert.strictEqual(result.capabilities[0].installed, true);
});
test('all skills in installedSkills → installed=true', () => {
const registry = makeRegistry({ skills: ['ui-phase', 'ui-review'] });
const result = resolveCapabilityState({
registry,
installedSkills: new Set(['ui-phase', 'ui-review']),
surfacedSkills: new Set(),
config: {},
});
assert.strictEqual(result.capabilities[0].installed, true);
});
test('one skill missing from installedSkills → installed=false', () => {
const registry = makeRegistry({ skills: ['ui-phase', 'ui-review'] });
const result = resolveCapabilityState({
registry,
installedSkills: new Set(['ui-phase']), // missing ui-review
surfacedSkills: new Set(),
config: {},
});
assert.strictEqual(result.capabilities[0].installed, false);
});
test('empty skills array → installed=true vacuously', () => {
// A capability with zero skills has no skills to be absent, so it is
// vacuously installed and surfaced regardless of the installed/surfaced sets.
// This is intentional: capabilities that gate purely on config (no skills
// required) should report installed=true/surfaced=true when no skills are
// needed. Activation state is still governed by hook `when` keys.
const registry = makeRegistry({ skills: [] });
const result = resolveCapabilityState({
registry,
installedSkills: new Set(), // nothing installed — vacuous true still applies
surfacedSkills: new Set(),
config: {},
});
assert.strictEqual(result.capabilities[0].installed, true);
assert.strictEqual(result.capabilities[0].surfaced, true);
});
});
// ─── resolveCapabilityState — surfaced dimension ──────────────────────────────
describe('resolveCapabilityState — surfaced dimension', () => {
test('all skills in surfacedSkills → surfaced=true', () => {
const registry = makeRegistry({ skills: ['ui-phase', 'ui-review'] });
const result = resolveCapabilityState({
registry,
installedSkills: '*',
surfacedSkills: new Set(['ui-phase', 'ui-review']),
config: {},
});
assert.strictEqual(result.capabilities[0].surfaced, true);
});
test('one skill missing from surfacedSkills → surfaced=false', () => {
const registry = makeRegistry({ skills: ['ui-phase', 'ui-review'] });
const result = resolveCapabilityState({
registry,
installedSkills: '*',
surfacedSkills: new Set(['ui-phase']), // missing ui-review
config: {},
});
assert.strictEqual(result.capabilities[0].surfaced, false);
});
test('empty skills array → surfaced=true vacuously', () => {
const registry = makeRegistry({ skills: [] });
const result = resolveCapabilityState({
registry,
installedSkills: '*',
surfacedSkills: new Set(), // nothing surfaced
config: {},
});
assert.strictEqual(result.capabilities[0].surfaced, true);
});
});
// ─── resolveCapabilityState — UI capability (real registry) ──────────────────
describe('resolveCapabilityState — UI capability with real registry', () => {
test('UI cap: installed=true when ui-phase + ui-review in installedSkills', () => {
const result = resolveCapabilityState({
registry: realRegistry,
installedSkills: new Set(['ui-phase', 'ui-review']),
surfacedSkills: new Set(['ui-phase', 'ui-review']),
config: { workflow: { ui_phase: true, ui_review: true, ui_safety_gate: true } },
cwd: tmpProjectDir,
});
const uiCap = result.capabilities.find((c) => c.id === 'ui');
assert.ok(uiCap, 'ui capability should be present');
assert.strictEqual(uiCap.installed, true);
assert.strictEqual(uiCap.surfaced, true);
assert.strictEqual(uiCap.enabled, true);
});
test('UI cap: installed=false when ui-review missing from installedSkills', () => {
const result = resolveCapabilityState({
registry: realRegistry,
installedSkills: new Set(['ui-phase']), // missing ui-review
surfacedSkills: new Set(['ui-phase', 'ui-review']),
config: { workflow: { ui_phase: true, ui_review: true, ui_safety_gate: true } },
cwd: tmpProjectDir,
});
const uiCap = result.capabilities.find((c) => c.id === 'ui');
assert.ok(uiCap);
assert.strictEqual(uiCap.installed, false);
assert.strictEqual(uiCap.enabled, false);
});
test('UI cap: surfaced=false when ui-review missing from surfacedSkills', () => {
const result = resolveCapabilityState({
registry: realRegistry,
installedSkills: new Set(['ui-phase', 'ui-review']),
surfacedSkills: new Set(['ui-phase']), // missing ui-review
config: { workflow: { ui_phase: true, ui_review: true, ui_safety_gate: true } },
cwd: tmpProjectDir,
});
const uiCap = result.capabilities.find((c) => c.id === 'ui');
assert.ok(uiCap);
assert.strictEqual(uiCap.surfaced, false);
assert.strictEqual(uiCap.enabled, false);
});
test('UI cap step hook: workflow.ui_phase true → active=true', () => {
const result = resolveCapabilityState({
registry: realRegistry,
installedSkills: '*',
surfacedSkills: new Set(['ui-phase', 'ui-review']),
config: { workflow: { ui_phase: true, ui_review: true, ui_safety_gate: true } },
cwd: tmpProjectDir,
});
const uiCap = result.capabilities.find((c) => c.id === 'ui');
assert.ok(uiCap);
// Find the plan:pre step (ui-phase step)
const planPreStep = uiCap.hooks.find(
(h) => h.kind === 'step' && h.when === 'workflow.ui_phase',
);
assert.ok(planPreStep, 'should have plan:pre step with when=workflow.ui_phase');
assert.strictEqual(planPreStep.configured, true);
assert.strictEqual(planPreStep.active, true);
});
test('UI cap step hook: surfaced=false and workflow.ui_phase true → configured=true but active=false', () => {
const result = resolveCapabilityState({
registry: realRegistry,
installedSkills: '*',
surfacedSkills: new Set(),
config: { workflow: { ui_phase: true, ui_review: true, ui_safety_gate: true } },
cwd: tmpProjectDir,
});
const uiCap = result.capabilities.find((c) => c.id === 'ui');
assert.ok(uiCap);
assert.strictEqual(uiCap.enabled, false);
const planPreStep = uiCap.hooks.find(
(h) => h.kind === 'step' && h.when === 'workflow.ui_phase',
);
assert.ok(planPreStep, 'should have plan:pre step with when=workflow.ui_phase');
assert.strictEqual(planPreStep.configured, true);
assert.strictEqual(planPreStep.active, false);
});
test('UI cap step hook: workflow.ui_phase false → active=false', () => {
const result = resolveCapabilityState({
registry: realRegistry,
installedSkills: '*',
surfacedSkills: new Set(),
config: { workflow: { ui_phase: false, ui_review: false, ui_safety_gate: false } },
cwd: tmpProjectDirFalse,
});
const uiCap = result.capabilities.find((c) => c.id === 'ui');
assert.ok(uiCap);
const planPreStep = uiCap.hooks.find(
(h) => h.kind === 'step' && h.when === 'workflow.ui_phase',
);
assert.ok(planPreStep, 'should have plan:pre step with when=workflow.ui_phase');
assert.strictEqual(planPreStep.configured, false);
assert.strictEqual(planPreStep.active, false);
});
test('UI cap gate hook: workflow.ui_safety_gate true → active=true', () => {
const result = resolveCapabilityState({
registry: realRegistry,
installedSkills: '*',
surfacedSkills: new Set(['ui-phase', 'ui-review']),
config: { workflow: { ui_phase: true, ui_review: true, ui_safety_gate: true } },
cwd: tmpProjectDir,
});
const uiCap = result.capabilities.find((c) => c.id === 'ui');
assert.ok(uiCap);
const safetyGate = uiCap.hooks.find(
(h) => h.kind === 'gate' && h.when === 'workflow.ui_safety_gate',
);
assert.ok(safetyGate, 'should have gate with when=workflow.ui_safety_gate');
assert.strictEqual(safetyGate.configured, true);
assert.strictEqual(safetyGate.active, true);
});
test('UI cap gate hook: workflow.ui_safety_gate false → active=false', () => {
const result = resolveCapabilityState({
registry: realRegistry,
installedSkills: '*',
surfacedSkills: new Set(),
config: { workflow: { ui_phase: false, ui_review: false, ui_safety_gate: false } },
cwd: tmpProjectDirFalse,
});
const uiCap = result.capabilities.find((c) => c.id === 'ui');
assert.ok(uiCap);
const safetyGate = uiCap.hooks.find(
(h) => h.kind === 'gate' && h.when === 'workflow.ui_safety_gate',
);
assert.ok(safetyGate, 'should have gate with when=workflow.ui_safety_gate');
assert.strictEqual(safetyGate.configured, false);
assert.strictEqual(safetyGate.active, false);
});
});
// ─── resolveCapabilityState — hook activation ─────────────────────────────────
describe('resolveCapabilityState — hook activation details', () => {
test('hook with no `when` → active=true (unconditional)', () => {
const registry = makeRegistry({
steps: [{ point: 'plan:pre', ref: { skill: 'test-skill' } }], // no `when`
});
const result = resolveCapabilityState({
registry,
installedSkills: '*',
surfacedSkills: new Set(),
config: {},
});
assert.strictEqual(result.capabilities.length, 1);
const hook = result.capabilities[0].hooks.find((h) => h.kind === 'step');
assert.ok(hook, 'step hook should be present');
assert.strictEqual(hook.when, undefined);
assert.strictEqual(hook.active, true);
});
test('hook with `when` resolving truthy → active=true', () => {
const registry = makeRegistry({
steps: [{ point: 'plan:pre', when: 'workflow.my_feature' }],
});
const result = resolveCapabilityState({
registry,
installedSkills: '*',
surfacedSkills: new Set(),
config: { workflow: { my_feature: true } },
});
const hook = result.capabilities[0].hooks.find((h) => h.kind === 'step');
assert.ok(hook);
assert.strictEqual(hook.active, true);
});
test('hook with `when` resolving falsy → active=false', () => {
const registry = makeRegistry({
steps: [{ point: 'plan:pre', when: 'workflow.my_feature' }],
});
const result = resolveCapabilityState({
registry,
installedSkills: '*',
surfacedSkills: new Set(),
config: { workflow: { my_feature: false } },
});
const hook = result.capabilities[0].hooks.find((h) => h.kind === 'step');
assert.ok(hook);
assert.strictEqual(hook.active, false);
});
test('mixed hooks: some active, some not', () => {
const registry = makeRegistry({
steps: [
{ point: 'plan:pre', when: 'workflow.feat_a' },
{ point: 'plan:post' }, // no when → unconditional
],
gates: [{ point: 'execute:wave:post', when: 'workflow.feat_b' }],
// contributions must be a real array (not an object) so hook enumeration works
contributions: [
{ point: 'plan:pre', into: 'context', when: 'workflow.feat_c' },
],
});
const result = resolveCapabilityState({
registry,
installedSkills: '*',
surfacedSkills: new Set(),
config: { workflow: { feat_a: false, feat_b: true, feat_c: true } },
});
const cap = result.capabilities[0];
// feat_a step: inactive
const featAStep = cap.hooks.find((h) => h.when === 'workflow.feat_a');
assert.ok(featAStep);
assert.strictEqual(featAStep.active, false);
// unconditional step: active
const unconditional = cap.hooks.find((h) => h.kind === 'step' && !h.when);
assert.ok(unconditional);
assert.strictEqual(unconditional.active, true);
// feat_b gate: active
const featBGate = cap.hooks.find((h) => h.when === 'workflow.feat_b');
assert.ok(featBGate);
assert.strictEqual(featBGate.active, true);
// feat_c contribution: active, enumerated correctly
const featCContrib = cap.hooks.find((h) => h.kind === 'contribution' && h.when === 'workflow.feat_c');
assert.ok(featCContrib, 'contribution hook should be enumerated from array');
assert.strictEqual(featCContrib.active, true);
});
test('empty-string `when` → active=false (aligned with loop-resolver)', () => {
// loop-resolver.isActive: `when.length === 0` → false
// capability-state must behave identically
const registry = makeRegistry({
steps: [{ point: 'plan:pre', when: '' }],
});
const result = resolveCapabilityState({
registry,
installedSkills: '*',
surfacedSkills: new Set(),
config: {},
});
const hook = result.capabilities[0].hooks.find((h) => h.kind === 'step');
assert.ok(hook, 'step hook should be present');
assert.strictEqual(hook.when, '', 'original when value must be preserved');
assert.strictEqual(hook.active, false, 'empty-string when → inactive');
});
test('non-string `when` → active=false (aligned with loop-resolver)', () => {
// loop-resolver.isActive: `typeof when !== 'string'` → false
const registry = makeRegistry({
steps: [{ point: 'plan:pre', when: 42 }],
});
const result = resolveCapabilityState({
registry,
installedSkills: '*',
surfacedSkills: new Set(),
config: {},
});
const hook = result.capabilities[0].hooks.find((h) => h.kind === 'step');
assert.ok(hook, 'step hook should be present');
assert.strictEqual(hook.when, 42, 'original non-string when value must be preserved');
assert.strictEqual(hook.active, false, 'non-string when → inactive');
});
// ── configActivation cascade to hooks ────────────────────────────────────────
// Bug: a config-disabled capability (active=false) with an unconditional hook
// (no `when`, configured=true) was wrongly yielding hook.active=true because
// the hook loop used `enabled && configured` instead of `active && configured`.
// Fix: hook.active = active(capability) && configured.
test('config-disabled capability with unconditional hook → hook.active=false, configured=true', () => {
// The capability activationKey resolves false → capability active=false.
// The hook has no `when` → configured=true (unconditional).
// Before the fix: hook.active = enabled(true) && configured(true) = true ← BUG
// After the fix: hook.active = active(false) && configured(true) = false ← correct
const registry = makeRegistry({
id: 'test-cap',
skills: ['my-skill'],
activationKey: 'myfeature.enabled',
steps: [{ point: 'plan:pre', ref: { skill: 'my-skill' } }], // no `when` → unconditional
});
const result = resolveCapabilityState({
registry,
installedSkills: new Set(['my-skill']),
surfacedSkills: new Set(['my-skill']),
config: { myfeature: { enabled: false } }, // capability's configActivation = false
});
const cap = result.capabilities[0];
assert.ok(cap, 'capability must be present');
assert.strictEqual(cap.enabled, true, 'enabled stays true: installed && surfaced');
assert.strictEqual(cap.active, false, 'capability active=false: configActivation off');
const hook = cap.hooks.find((h) => h.kind === 'step');
assert.ok(hook, 'unconditional step hook must be present');
assert.strictEqual(hook.when, undefined, 'hook has no when field (unconditional)');
assert.strictEqual(hook.configured, true, 'hook configured=true: hook own gate is open');
assert.strictEqual(hook.active, false, 'hook active=false: capability configActivation cascades to hook');
});
test('config-ENABLED capability with unconditional hook → hook.active=true (control)', () => {
// Same setup as above but activationKey resolves true → capability active=true.
// hook.active should follow configured as before.
const registry = makeRegistry({
id: 'test-cap',
skills: ['my-skill'],
activationKey: 'myfeature.enabled',
steps: [{ point: 'plan:pre', ref: { skill: 'my-skill' } }], // no `when`
});
const result = resolveCapabilityState({
registry,
installedSkills: new Set(['my-skill']),
surfacedSkills: new Set(['my-skill']),
config: { myfeature: { enabled: true } }, // capability's configActivation = true
});
const cap = result.capabilities[0];
assert.ok(cap, 'capability must be present');
assert.strictEqual(cap.active, true, 'capability active=true: configActivation on');
const hook = cap.hooks.find((h) => h.kind === 'step');
assert.ok(hook, 'unconditional step hook must be present');
assert.strictEqual(hook.configured, true, 'hook configured=true');
assert.strictEqual(hook.active, true, 'hook active=true: both capability and hook gate open');
});
});
// ─── resolveCapabilityState — determinism ─────────────────────────────────────
describe('resolveCapabilityState — determinism', () => {
test('sorted by id — two caps returned in lexicographic order', () => {
// contributions must be an array (not an object) for the hook enumeration to work
const registry = {
capabilities: {
'zzz-cap': { id: 'zzz-cap', tier: 'standard', skills: [], steps: [], gates: [], contributions: [] },
'aaa-cap': { id: 'aaa-cap', tier: 'standard', skills: [], steps: [], gates: [], contributions: [] },
'mmm-cap': { id: 'mmm-cap', tier: 'standard', skills: [], steps: [], gates: [], contributions: [] },
},
};
const result = resolveCapabilityState({
registry,
installedSkills: '*',
surfacedSkills: new Set(),
config: {},
});
const ids = result.capabilities.map((c) => c.id);
assert.deepStrictEqual(ids, ['aaa-cap', 'mmm-cap', 'zzz-cap']);
});
test('two calls with same inputs produce identical output', () => {
const result1 = resolveCapabilityState({
registry: realRegistry,
installedSkills: new Set(['ui-phase', 'ui-review']),
surfacedSkills: new Set(['ui-phase']),
config: { workflow: { ui_phase: true, ui_review: false, ui_safety_gate: true } },
cwd: tmpProjectDir,
});
const result2 = resolveCapabilityState({
registry: realRegistry,
installedSkills: new Set(['ui-phase', 'ui-review']),
surfacedSkills: new Set(['ui-phase']),
config: { workflow: { ui_phase: true, ui_review: false, ui_safety_gate: true } },
cwd: tmpProjectDir,
});
assert.deepStrictEqual(result1, result2);
});
test('pure config-only resolution (cwd: undefined) — no I/O, deterministic', () => {
// When cwd is omitted, resolveCapabilityState does no filesystem I/O.
// Two calls with identical args must produce identical output regardless
// of any .planning/config.json files that may exist on disk.
const result1 = resolveCapabilityState({
registry: realRegistry,
installedSkills: new Set(['ui-phase', 'ui-review']),
surfacedSkills: new Set(['ui-phase', 'ui-review']),
config: { workflow: { ui_phase: true, ui_review: true, ui_safety_gate: false } },
// no cwd
});
const result2 = resolveCapabilityState({
registry: realRegistry,
installedSkills: new Set(['ui-phase', 'ui-review']),
surfacedSkills: new Set(['ui-phase', 'ui-review']),
config: { workflow: { ui_phase: true, ui_review: true, ui_safety_gate: false } },
// no cwd
});
assert.deepStrictEqual(result1, result2);
// Activation should come from the `config` arg only, not from disk
const uiCap = result1.capabilities.find((c) => c.id === 'ui');
assert.ok(uiCap, 'ui capability should be present');
const uiPhaseStep = uiCap.hooks.find(
(h) => h.kind === 'step' && h.when === 'workflow.ui_phase',
);
if (uiPhaseStep) {
assert.strictEqual(uiPhaseStep.active, true, 'should use config arg, not disk');
}
});
});
// ─── resolveCapabilityState — prototype pollution guard ──────────────────────
describe('resolveCapabilityState — prototype pollution guard', () => {
test('prototype-pollution capId is skipped; Object.prototype unpolluted', () => {
// Use Object.create(null) + Object.defineProperty to create a capabilities
// map with a real OWN '__proto__' key (not the prototype chain).
// The `{ __proto__: ... }` object literal syntax sets the prototype, not
// an own property — so it cannot exercise the guard. Using defineProperty
// ensures the key is an enumerable own property that Object.keys() returns.
const capabilitiesMap = Object.create(null);
Object.defineProperty(capabilitiesMap, '__proto__', {
value: { id: '__proto__', tier: 'standard', skills: [], steps: [], gates: [], contributions: [] },
enumerable: true,
configurable: true,
writable: true,
});
Object.defineProperty(capabilitiesMap, 'safe-cap', {
value: { id: 'safe-cap', tier: 'standard', skills: [], steps: [], gates: [], contributions: [] },
enumerable: true,
configurable: true,
writable: true,
});
const registry = { capabilities: capabilitiesMap };
const before = Object.prototype.toString.call({});
const result = resolveCapabilityState({
registry,
installedSkills: '*',
surfacedSkills: new Set(),
config: {},
});
const after = Object.prototype.toString.call({});
// Object.prototype must be unpolluted
assert.strictEqual(before, after);
// Verify no pollution occurred — a new plain object must not have a `polluted` property
assert.strictEqual(({}).polluted, undefined);
// Only the safe cap should appear
assert.strictEqual(result.capabilities.length, 1);
assert.strictEqual(result.capabilities[0].id, 'safe-cap');
});
});
// ─── cmdCapabilityState — end-to-end via gsd-tools CLI ──────────────────────
//
// Because cmdCapabilityState destructures `output` at module load time, patching
// core.cjs after the fact is ineffective. We instead invoke gsd-tools via
// spawnSync so each test gets a fresh process with stdout captured.
const { spawnSync } = require('node:child_process');
const gsdToolsPath = path.resolve(__dirname, '..', 'gsd-core', 'bin', 'gsd-tools.cjs');
function runCapabilityState(cwd, configDir) {
const result = spawnSync(
process.execPath,
[gsdToolsPath, 'capability', 'state', '--config-dir', configDir, '--raw', '--cwd', cwd],
{ encoding: 'utf8', timeout: 15000 },
);
return result;
}
describe('cmdCapabilityState — end-to-end via gsd-tools CLI', () => {
let tmpConfigDir;
let tmpConfigDirCore;
let tmpConfigDirUiDisabled;
before(() => {
// Tmp runtime config dir without .gsd-profile (defaults to 'full')
tmpConfigDir = fs.mkdtempSync(path.join(os.tmpdir(), 'cap-state-cfg-'));
// Tmp runtime config dir with core profile marker
tmpConfigDirCore = fs.mkdtempSync(path.join(os.tmpdir(), 'cap-state-cfg-core-'));
fs.writeFileSync(path.join(tmpConfigDirCore, '.gsd-profile'), 'core\n', 'utf8');
tmpConfigDirUiDisabled = fs.mkdtempSync(path.join(os.tmpdir(), 'cap-state-cfg-ui-disabled-'));
fs.writeFileSync(
path.join(tmpConfigDirUiDisabled, '.gsd-surface.json'),
JSON.stringify({
baseProfile: 'full',
disabledClusters: ['ui'],
explicitAdds: [],
explicitRemoves: [],
}, null, 2),
'utf8',
);
});
after(() => {
cleanup(tmpConfigDir);
cleanup(tmpConfigDirCore);
cleanup(tmpConfigDirUiDisabled);
});
test('emits envelope with runtimeConfigDir and capabilities array', () => {
const result = runCapabilityState(tmpProjectDir, tmpConfigDir);
assert.strictEqual(result.status, 0, `gsd-tools exited ${result.status}: ${result.stderr}`);
const envelope = JSON.parse(result.stdout);
assert.ok(typeof envelope === 'object' && envelope !== null, 'envelope must be an object');
assert.ok('runtimeConfigDir' in envelope, 'envelope must have runtimeConfigDir');
assert.ok(Array.isArray(envelope.capabilities), 'envelope.capabilities must be an array');
assert.ok(envelope.capabilities.length > 0, 'should have at least one capability');
});
test('with core profile marker: capabilities present (profile resolution does not throw)', () => {
const result = runCapabilityState(tmpProjectDir, tmpConfigDirCore);
assert.strictEqual(result.status, 0, `gsd-tools exited ${result.status}: ${result.stderr}`);
const envelope = JSON.parse(result.stdout);
assert.ok(Array.isArray(envelope.capabilities));
// ui capability should appear; installed=false because core profile doesn't include ui-phase/ui-review
const uiCap = envelope.capabilities.find((c) => c.id === 'ui');
assert.ok(uiCap, 'ui capability should be present in output');
assert.strictEqual(uiCap.installed, false, 'ui-phase/ui-review not in core profile');
});
test('runtimeConfigDir is echoed in the envelope', () => {
const result = runCapabilityState(tmpProjectDir, tmpConfigDir);
assert.strictEqual(result.status, 0, `gsd-tools exited ${result.status}: ${result.stderr}`);
const envelope = JSON.parse(result.stdout);
assert.strictEqual(envelope.runtimeConfigDir, tmpConfigDir);
});
test('surface-disabled UI capability reports enabled=false and inactive hooks', () => {
const result = runCapabilityState(tmpProjectDir, tmpConfigDirUiDisabled);
assert.strictEqual(result.status, 0, `gsd-tools exited ${result.status}: ${result.stderr}`);
const envelope = JSON.parse(result.stdout);
const uiCap = envelope.capabilities.find((c) => c.id === 'ui');
assert.ok(uiCap, 'ui capability should be present in output');
assert.strictEqual(uiCap.installed, true, 'full base profile still installs UI');
assert.strictEqual(uiCap.surfaced, false, 'surface disables UI capability skills');
assert.strictEqual(uiCap.enabled, false, 'disabled surface must disable the capability');
const planPreStep = uiCap.hooks.find(
(h) => h.kind === 'step' && h.when === 'workflow.ui_phase',
);
assert.ok(planPreStep, 'ui plan step should be present in diagnostic state');
assert.strictEqual(planPreStep.configured, true, 'project config/schema still configures UI on');
assert.strictEqual(planPreStep.active, false, 'effective hook activity must match workflow dispatch');
});
});
// ─── regressions: installed-runtime capability surface (#1160) ────────────────
//
// In an installed runtime (e.g. Codex) the commands/gsd source tree is absent.
// Only <configDir>/skills/gsd-*/SKILL.md files exist. Prior to this fix,
// loadSkillsManifest returned an empty map → resolveSurface materialized '*'
// to an empty Set → security.enabled=false / nyquist.enabled=false even when
// the project config had security_enforcement=true / nyquist_validation=true.
//
// These tests directly exercise the new _loadInstalledSkillsManifest and
// _resolveManifest functions with a non-existent commandsGsdDir path so they
// FAIL before the fix and PASS after, regardless of whether commands/gsd
// happens to exist in the current checkout.
describe('regressions: installed-runtime capability surface (#1160)', () => {
// Minimal valid SKILL.md content (frontmatter only — matches what install emits)
function makeSkillMd(stem) {
return [
'---',
`name: gsd:${stem}`,
`description: ${stem} skill`,
'argument-hint: "[phase number]"',
'allowed-tools:',
' - Read',
'requires: [phase]',
'---',
'Execute end-to-end.',
].join('\n') + '\n';
}
// ── Unit tests for _loadInstalledSkillsManifest ──────────────────────────────
test('_loadInstalledSkillsManifest: returns empty map when skills dir absent', () => {
const tmpDir = fs.mkdtempSync(path.join(os.tmpdir(), 'cap-ism-empty-'));
try {
const manifest = _loadInstalledSkillsManifest(tmpDir);
assert.ok(manifest instanceof Map, 'should return a Map');
assert.strictEqual(manifest.size, 0, 'should be empty when no skills/ dir');
} finally {
cleanup(tmpDir);
}
});
test('_loadInstalledSkillsManifest: scans gsd-<stem>/SKILL.md dirs and produces stems', () => {
const tmpDir = fs.mkdtempSync(path.join(os.tmpdir(), 'cap-ism-scan-'));
try {
// Create installed skill dirs
const secureDir = path.join(tmpDir, 'skills', 'gsd-secure-phase');
const validateDir = path.join(tmpDir, 'skills', 'gsd-validate-phase');
fs.mkdirSync(secureDir, { recursive: true });
fs.mkdirSync(validateDir, { recursive: true });
fs.writeFileSync(path.join(secureDir, 'SKILL.md'), makeSkillMd('secure-phase'), 'utf8');
fs.writeFileSync(path.join(validateDir, 'SKILL.md'), makeSkillMd('validate-phase'), 'utf8');
// Add a non-gsd- dir that should be ignored
fs.mkdirSync(path.join(tmpDir, 'skills', 'user-custom'), { recursive: true });
const manifest = _loadInstalledSkillsManifest(tmpDir);
assert.ok(manifest instanceof Map);
assert.ok(manifest.has('secure-phase'), 'should have secure-phase stem');
assert.ok(manifest.has('validate-phase'), 'should have validate-phase stem');
assert.ok(!manifest.has('user-custom'), 'non-gsd- dir must not appear');
} finally {
cleanup(tmpDir);
}
});
test('_loadInstalledSkillsManifest: parses requires from SKILL.md frontmatter', () => {
const tmpDir = fs.mkdtempSync(path.join(os.tmpdir(), 'cap-ism-req-'));
try {
const skillDir = path.join(tmpDir, 'skills', 'gsd-my-skill');
fs.mkdirSync(skillDir, { recursive: true });
fs.writeFileSync(
path.join(skillDir, 'SKILL.md'),
'---\nname: gsd:my-skill\nrequires: [dep-a, dep-b]\n---\nbody\n',
'utf8',
);
const manifest = _loadInstalledSkillsManifest(tmpDir);
assert.deepStrictEqual(manifest.get('my-skill'), ['dep-a', 'dep-b']);
} finally {
cleanup(tmpDir);
}
});
test('_loadInstalledSkillsManifest: directory with no SKILL.md is NOT registered (parity with loadSkillsManifest)', () => {
const tmpDir = fs.mkdtempSync(path.join(os.tmpdir(), 'cap-ism-nodoc-'));
try {
fs.mkdirSync(path.join(tmpDir, 'skills', 'gsd-nodoc'), { recursive: true });
// No SKILL.md written — a stale/empty skill dir must not invent a stem,
// mirroring loadSkillsManifest which only registers stems for files that exist.
const manifest = _loadInstalledSkillsManifest(tmpDir);
assert.ok(!manifest.has('nodoc'), 'stem must NOT be registered when SKILL.md is absent');
assert.ok(!manifest.has('_calls_agents_nodoc'), 'companion agents key must also be absent');
} finally {
cleanup(tmpDir);
}
});
// ── Unit tests for _resolveManifest ─────────────────────────────────────────
test('_resolveManifest: uses commandsGsdDir when it exists', () => {
const realCommandsGsdDir = path.resolve(__dirname, '..', 'commands', 'gsd');
if (!fs.existsSync(realCommandsGsdDir)) {
// Skip if not in a repo checkout
return;
}
const tmpDir = fs.mkdtempSync(path.join(os.tmpdir(), 'cap-rm-src-'));
try {
// No skills/ dir — if _resolveManifest uses source, it returns real skills
const manifest = _resolveManifest(realCommandsGsdDir, tmpDir);
assert.ok(manifest instanceof Map);
// The real commands/gsd has many skills; manifest should be non-empty
assert.ok(manifest.size > 0, 'should load skills from real source dir');
} finally {
cleanup(tmpDir);
}
});
test('_resolveManifest: falls back to installed skills when commandsGsdDir absent', () => {
const nonExistentDir = path.join(os.tmpdir(), 'cap-rm-nonexistent-' + Date.now());
const tmpDir = fs.mkdtempSync(path.join(os.tmpdir(), 'cap-rm-installed-'));
try {
// Create installed skill layout under tmpDir
const secureDir = path.join(tmpDir, 'skills', 'gsd-secure-phase');
const validateDir = path.join(tmpDir, 'skills', 'gsd-validate-phase');
fs.mkdirSync(secureDir, { recursive: true });
fs.mkdirSync(validateDir, { recursive: true });
fs.writeFileSync(path.join(secureDir, 'SKILL.md'), makeSkillMd('secure-phase'), 'utf8');
fs.writeFileSync(path.join(validateDir, 'SKILL.md'), makeSkillMd('validate-phase'), 'utf8');
const manifest = _resolveManifest(nonExistentDir, tmpDir);
assert.ok(manifest instanceof Map);
assert.ok(manifest.has('secure-phase'), 'must have secure-phase from installed skills');
assert.ok(manifest.has('validate-phase'), 'must have validate-phase from installed skills');
} finally {
cleanup(tmpDir);
}
});
// ── Integration tests: capability state with installed-layout config dir ────
// These tests use a config dir that has NO .gsd-source and where _resolveCommandsGsdDir
// would return the real repo path. To force the installed-path, we call
// resolveCapabilityState directly with manifests derived from _resolveManifest
// using a non-existent commandsGsdDir.
test('resolveCapabilityState: security enabled when secure-phase in installedSkills+surfacedSkills', () => {
const securitySkills = ['secure-phase'];
const result = resolveCapabilityState({
registry: realRegistry,
installedSkills: new Set(securitySkills),
surfacedSkills: new Set(securitySkills),
config: { workflow: { security_enforcement: true } },
});
const secCap = result.capabilities.find((c) => c.id === 'security');
assert.ok(secCap, 'security capability must be present');
assert.strictEqual(secCap.installed, true, 'secure-phase in installedSkills → installed');
assert.strictEqual(secCap.surfaced, true, 'secure-phase in surfacedSkills → surfaced');
assert.strictEqual(secCap.enabled, true, 'installed+surfaced → enabled');
});
test('resolveCapabilityState: security NOT enabled when surfacedSkills empty (pre-fix scenario)', () => {
// Simulates the pre-fix behavior: manifest empty → surface materializes to empty Set
const result = resolveCapabilityState({
registry: realRegistry,
installedSkills: '*', // full profile → installed=true
surfacedSkills: new Set(), // empty set (what empty manifest causes)
config: { workflow: { security_enforcement: true } },
});
const secCap = result.capabilities.find((c) => c.id === 'security');
assert.ok(secCap, 'security capability must be present');
assert.strictEqual(secCap.installed, true);
assert.strictEqual(secCap.surfaced, false, 'empty surfacedSkills → surfaced=false (pre-fix bug)');
assert.strictEqual(secCap.enabled, false, 'surfaced=false → enabled=false (pre-fix bug)');
});
// ── End-to-end CLI tests: capability state + loop render-hooks ───────────────
describe('end-to-end CLI with installed skill layout', () => {
let tmpInstalledConfigDir;
let tmpInstalledProjectDir;
before(() => {
tmpInstalledConfigDir = fs.mkdtempSync(path.join(os.tmpdir(), 'cap-state-installed-'));
fs.writeFileSync(path.join(tmpInstalledConfigDir, '.gsd-profile'), 'full\n', 'utf8');
const secureDir = path.join(tmpInstalledConfigDir, 'skills', 'gsd-secure-phase');
const validateDir = path.join(tmpInstalledConfigDir, 'skills', 'gsd-validate-phase');
fs.mkdirSync(secureDir, { recursive: true });
fs.mkdirSync(validateDir, { recursive: true });
fs.writeFileSync(path.join(secureDir, 'SKILL.md'), makeSkillMd('secure-phase'), 'utf8');
fs.writeFileSync(path.join(validateDir, 'SKILL.md'), makeSkillMd('validate-phase'), 'utf8');
tmpInstalledProjectDir = fs.mkdtempSync(path.join(os.tmpdir(), 'cap-state-installed-proj-'));
fs.mkdirSync(path.join(tmpInstalledProjectDir, '.planning'), { recursive: true });
fs.writeFileSync(
path.join(tmpInstalledProjectDir, '.planning', 'config.json'),
JSON.stringify({ workflow: { security_enforcement: true, nyquist_validation: true } }),
'utf8',
);
});
after(() => {
cleanup(tmpInstalledConfigDir);
cleanup(tmpInstalledProjectDir);
});
test('security capability: enabled=true in installed runtime with security_enforcement=true', () => {
const result = runCapabilityState(tmpInstalledProjectDir, tmpInstalledConfigDir);
assert.strictEqual(result.status, 0, `gsd-tools exited ${result.status}:\nstdout: ${result.stdout}\nstderr: ${result.stderr}`);
const envelope = JSON.parse(result.stdout);
const secCap = envelope.capabilities.find((c) => c.id === 'security');
assert.ok(secCap, 'security capability must be present in output');
assert.strictEqual(secCap.installed, true, 'security skill secure-phase is installed');
assert.strictEqual(secCap.surfaced, true, 'security skill secure-phase is surfaced (full profile)');
assert.strictEqual(secCap.enabled, true, 'security capability must be enabled');
});
test('nyquist capability: enabled=true in installed runtime with nyquist_validation=true', () => {
const result = runCapabilityState(tmpInstalledProjectDir, tmpInstalledConfigDir);
assert.strictEqual(result.status, 0, `gsd-tools exited ${result.status}:\nstdout: ${result.stdout}\nstderr: ${result.stderr}`);
const envelope = JSON.parse(result.stdout);
const nyqCap = envelope.capabilities.find((c) => c.id === 'nyquist');
assert.ok(nyqCap, 'nyquist capability must be present in output');
assert.strictEqual(nyqCap.installed, true, 'nyquist skill validate-phase is installed');
assert.strictEqual(nyqCap.surfaced, true, 'nyquist skill validate-phase is surfaced (full profile)');
assert.strictEqual(nyqCap.enabled, true, 'nyquist capability must be enabled');
});
test('security hook at verify:post is active in installed runtime', () => {
const result = spawnSync(
process.execPath,
[
gsdToolsPath,
'loop', 'render-hooks', 'verify:post',
'--config-dir', tmpInstalledConfigDir,
'--cwd', tmpInstalledProjectDir,
],
{ encoding: 'utf8', timeout: 15000 },
);
assert.strictEqual(result.status, 0, `gsd-tools exited ${result.status}:\nstdout: ${result.stdout}\nstderr: ${result.stderr}`);
const envelope = JSON.parse(result.stdout.trim());
assert.strictEqual(envelope.point, 'verify:post');
assert.ok(Array.isArray(envelope.activeHooks), 'activeHooks must be an array');
const securityHook = envelope.activeHooks.find(
(h) => h.capId === 'security' && h.kind === 'step',
);
assert.ok(
securityHook,
'verify:post must include security step hook when security_enforcement=true. Got: ' +
JSON.stringify(envelope.activeHooks),
);
assert.ok(
securityHook.ref && securityHook.ref.skill === 'secure-phase',
'security hook ref.skill must be secure-phase',
);
});
test('nyquist hook at verify:post is active in installed runtime', () => {
const result = spawnSync(
process.execPath,
[
gsdToolsPath,
'loop', 'render-hooks', 'verify:post',
'--config-dir', tmpInstalledConfigDir,
'--cwd', tmpInstalledProjectDir,
],
{ encoding: 'utf8', timeout: 15000 },
);
assert.strictEqual(result.status, 0, `gsd-tools exited ${result.status}:\nstdout: ${result.stdout}\nstderr: ${result.stderr}`);
const envelope = JSON.parse(result.stdout.trim());
const nyquistHook = envelope.activeHooks.find(
(h) => h.capId === 'nyquist' && h.kind === 'step',
);
assert.ok(
nyquistHook,
'verify:post must include nyquist step hook when nyquist_validation=true. Got: ' +
JSON.stringify(envelope.activeHooks),
);
assert.ok(
nyquistHook.ref && nyquistHook.ref.skill === 'validate-phase',
'nyquist hook ref.skill must be validate-phase',
);
});
});
// ── TRUE installed-runtime layout: gsd-tools runs where commands/gsd is unreachable ──
// The block above runs the repo's gsd-tools.cjs, where commands/gsd source IS
// reachable by walk-up, so it cannot exercise the bug. This block copies the
// runtime executable tree (gsd-core/bin + scripts + package.json) into a temp
// install root that has NO commands/ sibling — faithfully reproducing a global
// skills-runtime install (e.g. Codex at ~/.codex). There, the source manifest
// is genuinely empty, so pre-fix the '*' profile materialized to an empty
// surfaced set → enabled=false → verify:post activeHooks: []. This test FAILS
// before the fix and PASSES after.
describe('true installed layout (commands/gsd unreachable)', () => {
let installRoot;
let installedConfigDir;
let installedProjectDir;
let installedGsdTools;
before(() => {
const repoRoot = path.resolve(__dirname, '..');
// 1. Faithful install root: copy the executable runtime WITHOUT commands/.
installRoot = fs.mkdtempSync(path.join(os.tmpdir(), 'cap-state-installroot-'));
fs.mkdirSync(path.join(installRoot, 'gsd-core'), { recursive: true });
fs.cpSync(
path.join(repoRoot, 'gsd-core', 'bin'),
path.join(installRoot, 'gsd-core', 'bin'),
{ recursive: true },
);
fs.cpSync(
path.join(repoRoot, 'scripts'),
path.join(installRoot, 'scripts'),
{ recursive: true },
);
fs.copyFileSync(
path.join(repoRoot, 'package.json'),
path.join(installRoot, 'package.json'),
);
installedGsdTools = path.join(installRoot, 'gsd-core', 'bin', 'gsd-tools.cjs');
// 2. Installed runtime config dir: full profile + skills/gsd-*/SKILL.md only.
installedConfigDir = fs.mkdtempSync(path.join(os.tmpdir(), 'cap-state-instcfg-'));
fs.writeFileSync(path.join(installedConfigDir, '.gsd-profile'), 'full\n', 'utf8');
for (const stem of ['secure-phase', 'validate-phase']) {
const skillDir = path.join(installedConfigDir, 'skills', `gsd-${stem}`);
fs.mkdirSync(skillDir, { recursive: true });
fs.writeFileSync(path.join(skillDir, 'SKILL.md'), makeSkillMd(stem), 'utf8');
}
// 3. Project enabling both gates.
installedProjectDir = fs.mkdtempSync(path.join(os.tmpdir(), 'cap-state-instproj-'));
fs.mkdirSync(path.join(installedProjectDir, '.planning'), { recursive: true });
fs.writeFileSync(
path.join(installedProjectDir, '.planning', 'config.json'),
JSON.stringify({ workflow: { security_enforcement: true, nyquist_validation: true } }),
'utf8',
);
});
after(() => {
cleanup(installRoot);
cleanup(installedConfigDir);
cleanup(installedProjectDir);
});
test('commands/gsd is genuinely unreachable from the installed gsd-tools', () => {
// Sanity: no commands/gsd anywhere under the install root.
const probe = path.join(installRoot, 'commands', 'gsd');
assert.strictEqual(fs.existsSync(probe), false, 'install root must have no commands/gsd');
});
test('capability state: security & nyquist enabled in true installed runtime', () => {
const result = spawnSync(
process.execPath,
[
installedGsdTools,
'capability', 'state',
'--config-dir', installedConfigDir,
'--cwd', installedProjectDir,
'--raw',
],
{ encoding: 'utf8', timeout: 20000 },
);
assert.strictEqual(result.status, 0, `gsd-tools exited ${result.status}:\nstdout: ${result.stdout}\nstderr: ${result.stderr}`);
const envelope = JSON.parse(result.stdout);
const secCap = envelope.capabilities.find((c) => c.id === 'security');
const nyqCap = envelope.capabilities.find((c) => c.id === 'nyquist');
assert.ok(secCap && nyqCap, 'security and nyquist capabilities must be present');
assert.strictEqual(secCap.surfaced, true, 'security surfaced from installed skills (pre-fix: false)');
assert.strictEqual(secCap.enabled, true, 'security enabled in installed runtime (pre-fix: false)');
assert.strictEqual(nyqCap.surfaced, true, 'nyquist surfaced from installed skills (pre-fix: false)');
assert.strictEqual(nyqCap.enabled, true, 'nyquist enabled in installed runtime (pre-fix: false)');
});
test('loop render-hooks verify:post: includes security & nyquist in true installed runtime', () => {
const result = spawnSync(
process.execPath,
[
installedGsdTools,
'loop', 'render-hooks', 'verify:post',
'--config-dir', installedConfigDir,
'--cwd', installedProjectDir,
],
{ encoding: 'utf8', timeout: 20000 },
);
assert.strictEqual(result.status, 0, `gsd-tools exited ${result.status}:\nstdout: ${result.stdout}\nstderr: ${result.stderr}`);
const envelope = JSON.parse(result.stdout.trim());
assert.strictEqual(envelope.point, 'verify:post');
assert.ok(Array.isArray(envelope.activeHooks), 'activeHooks must be an array');
const sec = envelope.activeHooks.find((h) => h.capId === 'security' && h.kind === 'step');
const nyq = envelope.activeHooks.find((h) => h.capId === 'nyquist' && h.kind === 'step');
assert.ok(
sec && sec.ref && sec.ref.skill === 'secure-phase',
'verify:post must include security -> secure-phase (pre-fix: activeHooks was []). Got: ' + JSON.stringify(envelope.activeHooks),
);
assert.ok(
nyq && nyq.ref && nyq.ref.skill === 'validate-phase',
'verify:post must include nyquist -> validate-phase (pre-fix: activeHooks was []). Got: ' + JSON.stringify(envelope.activeHooks),
);
});
test('negative: when both gates disabled, hooks stay inactive (no over-activation)', () => {
const disabledProj = fs.mkdtempSync(path.join(os.tmpdir(), 'cap-state-instproj-off-'));
try {
fs.mkdirSync(path.join(disabledProj, '.planning'), { recursive: true });
fs.writeFileSync(
path.join(disabledProj, '.planning', 'config.json'),
JSON.stringify({ workflow: { security_enforcement: false, nyquist_validation: false } }),
'utf8',
);
const result = spawnSync(
process.execPath,
[
installedGsdTools,
'loop', 'render-hooks', 'verify:post',
'--config-dir', installedConfigDir,
'--cwd', disabledProj,
],
{ encoding: 'utf8', timeout: 20000 },
);
assert.strictEqual(result.status, 0, `gsd-tools exited ${result.status}:\nstderr: ${result.stderr}`);
const envelope = JSON.parse(result.stdout.trim());
const sec = (envelope.activeHooks || []).find((h) => h.capId === 'security' && h.kind === 'step');
const nyq = (envelope.activeHooks || []).find((h) => h.capId === 'nyquist' && h.kind === 'step');
assert.ok(!sec, 'security step must NOT be active when security_enforcement=false');
assert.ok(!nyq, 'nyquist step must NOT be active when nyquist_validation=false');
} finally {
cleanup(disabledProj);
}
});
});
});
// ─── resolveCapabilityState — per-capability active field ────────────────────
describe('resolveCapabilityState — per-capability active (Phase 2)', () => {
// Boundary: installed && surfaced && config-enabled → active=true
test('active=true when installed && surfaced && activationKey resolves true', () => {
const registry = makeRegistry({
skills: ['my-skill'],
activationKey: 'myfeature.enabled',
configSchema: { 'myfeature.enabled': { default: false } },
});
const result = resolveCapabilityState({
registry,
installedSkills: new Set(['my-skill']),
surfacedSkills: new Set(['my-skill']),
config: { myfeature: { enabled: true } },
});
const cap = result.capabilities[0];
assert.ok(cap, 'capability must be present');
assert.strictEqual(cap.installed, true);
assert.strictEqual(cap.surfaced, true);
assert.strictEqual(cap.enabled, true, 'enabled = installed && surfaced (unchanged)');
assert.strictEqual(cap.active, true, 'active = enabled && config-enabled');
});
// Boundary: installed && surfaced && config-DISABLED → active=false (the key case)
test('active=false when installed && surfaced but activationKey resolves false', () => {
const registry = makeRegistry({
skills: ['my-skill'],
activationKey: 'myfeature.enabled',
configSchema: { 'myfeature.enabled': { default: false } },
});
const result = resolveCapabilityState({
registry,
installedSkills: new Set(['my-skill']),
surfacedSkills: new Set(['my-skill']),
config: { myfeature: { enabled: false } },
});
const cap = result.capabilities[0];
assert.ok(cap);
assert.strictEqual(cap.enabled, true, 'enabled still true: installed && surfaced unchanged');
assert.strictEqual(cap.active, false, 'active=false: config gate is off');
});
// Boundary: config-enabled but NOT surfaced → active=false
test('active=false when config-enabled but not surfaced (enabled=false)', () => {
const registry = makeRegistry({
skills: ['my-skill'],
activationKey: 'myfeature.enabled',
});
const result = resolveCapabilityState({
registry,
installedSkills: new Set(['my-skill']),
surfacedSkills: new Set(), // NOT surfaced
config: { myfeature: { enabled: true } },
});
const cap = result.capabilities[0];
assert.ok(cap);
assert.strictEqual(cap.surfaced, false);
assert.strictEqual(cap.enabled, false, 'enabled=false: not surfaced');
assert.strictEqual(cap.active, false, 'active=false: enabled is false');
});
// Boundary: NOT installed → active=false regardless of config
test('active=false when not installed (installed=false)', () => {
const registry = makeRegistry({
skills: ['my-skill'],
activationKey: 'myfeature.enabled',
});
const result = resolveCapabilityState({
registry,
installedSkills: new Set(), // NOT installed
surfacedSkills: new Set(['my-skill']),
config: { myfeature: { enabled: true } },
});
const cap = result.capabilities[0];
assert.ok(cap);
assert.strictEqual(cap.installed, false);
assert.strictEqual(cap.enabled, false);
assert.strictEqual(cap.active, false, 'active=false: not installed');
});
// Boundary: no activationKey → active === enabled (no config gate)
test('active=enabled when capability has no activationKey', () => {
// No activationKey: configActivation defaults to true so active = enabled
const registry = makeRegistry({
skills: ['my-skill'],
// No activationKey
});
// installed && surfaced → enabled=true → active=true
const resultEnabled = resolveCapabilityState({
registry,
installedSkills: new Set(['my-skill']),
surfacedSkills: new Set(['my-skill']),
config: {},
});
const capEnabled = resultEnabled.capabilities[0];
assert.ok(capEnabled);
assert.strictEqual(capEnabled.enabled, true);
assert.strictEqual(capEnabled.active, true, 'active=true when no activationKey and enabled');
// NOT surfaced → enabled=false → active=false
const resultDisabled = resolveCapabilityState({
registry,
installedSkills: new Set(['my-skill']),
surfacedSkills: new Set(), // not surfaced
config: {},
});
const capDisabled = resultDisabled.capabilities[0];
assert.ok(capDisabled);
assert.strictEqual(capDisabled.enabled, false);
assert.strictEqual(capDisabled.active, false, 'active=false when no activationKey and not enabled');
});
// enabled field semantics unchanged: still installed && surfaced only
test('enabled stays installed && surfaced regardless of activationKey', () => {
const registry = makeRegistry({
skills: ['my-skill'],
activationKey: 'myfeature.enabled',
});
// installed && surfaced but config disables it
const result = resolveCapabilityState({
registry,
installedSkills: new Set(['my-skill']),
surfacedSkills: new Set(['my-skill']),
config: { myfeature: { enabled: false } },
});
const cap = result.capabilities[0];
assert.ok(cap);
// enabled must still be true (installed && surfaced — config doesn't affect it)
assert.strictEqual(cap.enabled, true, 'enabled = installed && surfaced (config does not affect enabled)');
assert.strictEqual(cap.active, false, 'active reflects config gate');
});
// activationKey defaults to schema default when key absent from config
test('active uses schema default when activationKey not in config', () => {
// schema default = true → active=true when enabled
const registryDefaultTrue = makeRegistry({
skills: ['my-skill'],
activationKey: 'myfeature.enabled',
configSchema: { 'myfeature.enabled': { default: true } },
});
const resultTrue = resolveCapabilityState({
registry: registryDefaultTrue,
installedSkills: new Set(['my-skill']),
surfacedSkills: new Set(['my-skill']),
config: {}, // no explicit key
});
assert.strictEqual(resultTrue.capabilities[0].active, true, 'active=true when schema default=true');
// schema default = false → active=false when enabled
const registryDefaultFalse = makeRegistry({
skills: ['my-skill'],
activationKey: 'myfeature.enabled',
configSchema: { 'myfeature.enabled': { default: false } },
});
const resultFalse = resolveCapabilityState({
registry: registryDefaultFalse,
installedSkills: new Set(['my-skill']),
surfacedSkills: new Set(['my-skill']),
config: {}, // no explicit key
});
assert.strictEqual(resultFalse.capabilities[0].active, false, 'active=false when schema default=false');
});
});
// ─── isCapabilityActive convenience predicate ─────────────────────────────────
describe('isCapabilityActive — convenience predicate (Phase 2)', () => {
// isCapabilityActive delegates to resolveCapabilityRuntimeState which does I/O.
// We test it via the CLI+tmpDir path used by the existing e2e tests above, and
// a pure-function boundary test that forces a known-missing capability id.
test('returns false for unknown capId (not in registry)', () => {
// We can't easily inject the registry into resolveCapabilityRuntimeState
// without a cwd that has been set up. Instead, probe a capability id that
// is guaranteed to never appear in the real registry.
// We use a non-existent cwd so resolveCapabilityRuntimeState degrades
// gracefully (installedSkills/surfacedSkills → empty → all disabled) but
// still returns a capabilities array from the real registry.
// Any truly-unknown capId must return false regardless.
const nonExistentCwd = path.join(os.tmpdir(), 'cap-active-nonexistent-' + Date.now());
const result = isCapabilityActive('__definitely_not_a_capability__', nonExistentCwd);
assert.strictEqual(result, false, 'unknown capId must return false');
});
test('isCapabilityActive returns same value as the entry active field (e2e)', () => {
// Use a non-existent cwd so resolveCapabilityRuntimeState degrades gracefully.
// resolveCapabilityRuntimeState and isCapabilityActive both resolve against
// the SAME runtime environment: we compare isCapabilityActive(capId, cwd)
// to the matching entry's .active from resolveCapabilityRuntimeState(cwd, undefined)
// called on the identical cwd. This guarantees a real equality check — not typeof.
//
// We need resolveCapabilityRuntimeState for the comparison; require it here
// since it is exported from the same module.
const { resolveCapabilityRuntimeState } = require('../gsd-core/bin/lib/capability-state.cjs');
const nonExistentCwd = path.join(os.tmpdir(), 'cap-active-eq-' + Date.now());
// Pick a capability that exists in the real registry ('ui' is always present).
const capId = 'ui';
// resolveCapabilityRuntimeState resolves state from the real environment.
const runtimeResult = resolveCapabilityRuntimeState(nonExistentCwd, undefined);
const entry = runtimeResult.capabilities.find((c) => c.id === capId);
assert.ok(entry, `'${capId}' must be present in the real registry`);
// isCapabilityActive must return exactly the same boolean as the resolved entry.
const actual = isCapabilityActive(capId, nonExistentCwd);
assert.strictEqual(
actual,
entry.active,
`isCapabilityActive('${capId}') must equal entry.active=${entry.active} from resolveCapabilityRuntimeState`,
);
// Also verify the already-covered false case for unknown capId:
assert.strictEqual(isCapabilityActive('__no_such_cap__', nonExistentCwd), false);
});
});
// ─── resolveCapabilityRuntimeState configOverride (FIX 1 — single config snapshot) ──────────────
describe('resolveCapabilityRuntimeState configOverride — honors caller snapshot instead of reading disk', () => {
// These tests exercise the optional third parameter `configOverride`.
// When provided, the resolver MUST use that config object for capability
// activation (active = enabled && configActivation) rather than calling
// loadConfig(cwd) internally. This guarantees that cmdLoopRenderHooks and
// the resolver use the exact same config snapshot (TOCTOU elimination).
//
// Strategy: build a synthetic registry with `activationKey: 'myfeature.enabled'`
// and use a tmpdir whose on-disk .planning/config.json carries the OPPOSITE
// value from the configOverride. The test asserts that the returned capability
// `active` matches the override, not the on-disk file.
const { resolveCapabilityRuntimeState } = require('../gsd-core/bin/lib/capability-state.cjs');
let tmpDir;
let savedEnv;
before(() => {
tmpDir = fs.mkdtempSync(path.join(os.tmpdir(), 'cap-state-override-'));
// Save env vars that affect planningDir / config resolution
savedEnv = {
GSD_WORKSTREAM: process.env.GSD_WORKSTREAM,
GSD_PROJECT: process.env.GSD_PROJECT,
CLAUDE_CONFIG_DIR: process.env.CLAUDE_CONFIG_DIR,
};
delete process.env.GSD_WORKSTREAM;
delete process.env.GSD_PROJECT;
delete process.env.CLAUDE_CONFIG_DIR;
// Write on-disk config with myfeature.enabled=false (override will say true)
const planningDir = path.join(tmpDir, '.planning');
fs.mkdirSync(planningDir, { recursive: true });
fs.writeFileSync(
path.join(planningDir, 'config.json'),
JSON.stringify({ myfeature: { enabled: false } }),
'utf8',
);
});
after(() => {
// Restore env vars
if (savedEnv.GSD_WORKSTREAM !== undefined) process.env.GSD_WORKSTREAM = savedEnv.GSD_WORKSTREAM;
else delete process.env.GSD_WORKSTREAM;
if (savedEnv.GSD_PROJECT !== undefined) process.env.GSD_PROJECT = savedEnv.GSD_PROJECT;
else delete process.env.GSD_PROJECT;
if (savedEnv.CLAUDE_CONFIG_DIR !== undefined) process.env.CLAUDE_CONFIG_DIR = savedEnv.CLAUDE_CONFIG_DIR;
else delete process.env.CLAUDE_CONFIG_DIR;
cleanup(tmpDir);
});
test('configOverride=undefined (default) reads on-disk config → active=false', () => {
// Baseline: without override, loadConfig reads the on-disk file which has
// myfeature.enabled=false, so the capability is inactive.
// NOTE: resolveCapabilityRuntimeState does real I/O (profile/surface), which
// degrades gracefully on a tmpDir that has no surface marker. We only assert
// on the `active` field which is determined by the config activation leg.
// Use a simple registry with no skills so installed=surfaced=enabled=true
// (vacuously) and active depends solely on configActivation.
//
// Because resolveCapabilityRuntimeState always uses the real capability-registry.cjs,
// we cannot inject the synthetic registry into it. Instead we verify the
// config-override leg by comparing the two code paths (with and without override)
// against each other on a known config key that the real registry uses.
//
// We use the real 'graphify' capability whose activationKey='graphify.enabled'.
// On-disk: graphify.enabled=false → active=false.
// Override: { graphify: { enabled: true } } → active=true.
//
// Set up a separate tmpdir with graphify.enabled=false on disk.
const tmpCwd = fs.mkdtempSync(path.join(os.tmpdir(), 'cap-override-baseline-'));
try {
fs.mkdirSync(path.join(tmpCwd, '.planning'), { recursive: true });
fs.writeFileSync(
path.join(tmpCwd, '.planning', 'config.json'),
JSON.stringify({ graphify: { enabled: false } }),
'utf8',
);
// No override → reads on-disk config → graphify active=false
const result = resolveCapabilityRuntimeState(tmpCwd, undefined);
const graphifyEntry = result.capabilities.find((c) => c.id === 'graphify');
assert.ok(graphifyEntry, 'graphify capability must be present in the real registry');
assert.strictEqual(
graphifyEntry.active,
false,
'Without configOverride, on-disk graphify.enabled=false must produce active=false',
);
} finally {
cleanup(tmpCwd);
}
});
test('configOverride honors caller value — overrides on-disk config (active flips from false to true)', () => {
// On-disk: graphify.enabled=false (set up in before()).
// configOverride: { graphify: { enabled: true } } ← caller wins.
// Expected: graphify active=true (override, not disk).
//
// The tmpDir from before() has graphify.enabled=false on disk. We pass
// configOverride with graphify.enabled=true. The returned active must be true.
const override = { graphify: { enabled: true } };
const result = resolveCapabilityRuntimeState(tmpDir, undefined, override);
const graphifyEntry = result.capabilities.find((c) => c.id === 'graphify');
assert.ok(graphifyEntry, 'graphify capability must be present in the real registry');
assert.strictEqual(
graphifyEntry.active,
true,
'configOverride { graphify: { enabled: true } } must produce active=true even though on-disk config has graphify.enabled=false',
);
});
test('configOverride — non-existent cwd, override with enabled=true → active=true regardless of absent disk file', () => {
// When cwd points to a non-existent directory, loadConfig(cwd) would return {}
// (or throw/fallback to {}). With configOverride, the caller's value is used
// for level-1 directly. Levels 2+3 raw reads on a non-existent cwd produce
// no-hits. So: override={graphify:{enabled:true}} → level-1 hit → active=true.
// This is a clean test that avoids any interaction with the on-disk fixture in tmpDir.
const nonExistentCwd = path.join(os.tmpdir(), 'cap-override-nonexistent-' + Date.now());
const override = { graphify: { enabled: true } };
const result = resolveCapabilityRuntimeState(nonExistentCwd, undefined, override);
const graphifyEntry = result.capabilities.find((c) => c.id === 'graphify');
assert.ok(graphifyEntry, 'graphify capability must be present in the real registry');
assert.strictEqual(
graphifyEntry.active,
true,
'configOverride { graphify: { enabled: true } } must produce active=true even with non-existent cwd (level-1 hit from override)',
);
});
});
// ─── Cross-runtime runtime detection (HIGH fix — GSD_RUNTIME → config.runtime → 'claude') ──────
describe('isCapabilityActive cross-runtime detection (GSD_RUNTIME → config.runtime → claude)', () => {
// Verifies the HIGH bug fix: when GSD_RUNTIME='codex', resolveCapabilityRuntimeState
// must consult the CODEX config dir (via CODEX_HOME), not ~/.claude.
//
// Fixture layout:
// CODEX_HOME → tmpCodexDir/ ← .gsd-surface.json: full profile, graphify SURFACED
// CLAUDE_CONFIG_DIR → tmpClaudeDir/ ← .gsd-surface.json: full profile, graphify NOT surfaced
// GSD_RUNTIME=codex
// project cwd → tmpProjectDir/ ← config.json: graphify.enabled=true
// (config leg must pass; SURFACE leg is what we are isolating)
//
// Expected: isCapabilityActive('graphify', cwd) === true
// (codex dir has graphify surfaced, so the codex surface should win)
//
// Pre-fix (hardcoded 'claude'): would read tmpClaudeDir → graphify NOT surfaced → false (BUG).
// Post-fix (detects 'codex' via GSD_RUNTIME): reads tmpCodexDir → surfaced → true (CORRECT).
let tmpCodexDir;
let tmpClaudeDir;
let tmpProjectDir;
let prevGsdRuntime;
let prevCodexHome;
let prevClaudeConfigDir;
let prevGsdWorkstream;
let prevGsdProject;
before(() => {
tmpCodexDir = fs.mkdtempSync(path.join(os.tmpdir(), 'cap-state-codex-cfg-'));
tmpClaudeDir = fs.mkdtempSync(path.join(os.tmpdir(), 'cap-state-claude-cfg-'));
tmpProjectDir = fs.mkdtempSync(path.join(os.tmpdir(), 'cap-state-xrt-project-'));
// Codex config dir: full profile + graphify SURFACED (disabledClusters empty)
fs.writeFileSync(
path.join(tmpCodexDir, '.gsd-surface.json'),
JSON.stringify({ baseProfile: 'full', disabledClusters: [], explicitAdds: [], explicitRemoves: [] }, null, 2) + '\n',
'utf8',
);
// Claude config dir: full profile + graphify NOT surfaced
fs.writeFileSync(
path.join(tmpClaudeDir, '.gsd-surface.json'),
JSON.stringify({ baseProfile: 'full', disabledClusters: ['graphify'], explicitAdds: [], explicitRemoves: [] }, null, 2) + '\n',
'utf8',
);
// Project: config with graphify.enabled=true so the config leg passes.
// The SURFACE leg (install+surfaced) is what we are testing — it must read
// the CODEX config dir (via CODEX_HOME), not the CLAUDE config dir.
fs.mkdirSync(path.join(tmpProjectDir, '.planning'), { recursive: true });
fs.writeFileSync(
path.join(tmpProjectDir, '.planning', 'config.json'),
JSON.stringify({ graphify: { enabled: true } }),
'utf8',
);
});
after(() => {
cleanup(tmpCodexDir);
cleanup(tmpClaudeDir);
cleanup(tmpProjectDir);
});
test('GSD_RUNTIME=codex → resolver consults CODEX_HOME, not CLAUDE_CONFIG_DIR (HIGH cross-runtime fix)', () => {
prevGsdRuntime = process.env.GSD_RUNTIME;
prevCodexHome = process.env.CODEX_HOME;
prevClaudeConfigDir = process.env.CLAUDE_CONFIG_DIR;
prevGsdWorkstream = process.env.GSD_WORKSTREAM;
prevGsdProject = process.env.GSD_PROJECT;
try {
process.env.GSD_RUNTIME = 'codex';
process.env.CODEX_HOME = tmpCodexDir; // codex dir: graphify SURFACED
process.env.CLAUDE_CONFIG_DIR = tmpClaudeDir; // claude dir: graphify NOT surfaced
delete process.env.GSD_WORKSTREAM;
delete process.env.GSD_PROJECT;
// With GSD_RUNTIME=codex, the resolver must look at CODEX_HOME (graphify surfaced)
// and return true. Pre-fix it would look at CLAUDE_CONFIG_DIR (not surfaced) → false.
const active = isCapabilityActive('graphify', tmpProjectDir);
assert.strictEqual(
active,
true,
'isCapabilityActive must return true when GSD_RUNTIME=codex and graphify is surfaced in CODEX_HOME — ' +
'the pre-fix code hardcoded getGlobalConfigDir("claude") regardless of GSD_RUNTIME, returning false (BUG)',
);
// Also verify: if we swap surfaces (codex NOT surfaced, claude surfaced), still uses codex dir → false
fs.writeFileSync(
path.join(tmpCodexDir, '.gsd-surface.json'),
JSON.stringify({ baseProfile: 'full', disabledClusters: ['graphify'], explicitAdds: [], explicitRemoves: [] }, null, 2) + '\n',
'utf8',
);
fs.writeFileSync(
path.join(tmpClaudeDir, '.gsd-surface.json'),
JSON.stringify({ baseProfile: 'full', disabledClusters: [], explicitAdds: [], explicitRemoves: [] }, null, 2) + '\n',
'utf8',
);
const activeSwapped = isCapabilityActive('graphify', tmpProjectDir);
assert.strictEqual(
activeSwapped,
false,
'isCapabilityActive must return false when GSD_RUNTIME=codex and graphify is NOT surfaced in CODEX_HOME — ' +
'even though claude dir has graphify surfaced, the codex dir is the authoritative surface',
);
} finally {
// Restore env vars
if (prevGsdRuntime === undefined) delete process.env.GSD_RUNTIME;
else process.env.GSD_RUNTIME = prevGsdRuntime;
if (prevCodexHome === undefined) delete process.env.CODEX_HOME;
else process.env.CODEX_HOME = prevCodexHome;
if (prevClaudeConfigDir === undefined) delete process.env.CLAUDE_CONFIG_DIR;
else process.env.CLAUDE_CONFIG_DIR = prevClaudeConfigDir;
if (prevGsdWorkstream === undefined) delete process.env.GSD_WORKSTREAM;
else process.env.GSD_WORKSTREAM = prevGsdWorkstream;
if (prevGsdProject === undefined) delete process.env.GSD_PROJECT;
else process.env.GSD_PROJECT = prevGsdProject;
// Restore codex dir surface fixture for cleanup consistency
fs.writeFileSync(
path.join(tmpCodexDir, '.gsd-surface.json'),
JSON.stringify({ baseProfile: 'full', disabledClusters: [], explicitAdds: [], explicitRemoves: [] }, null, 2) + '\n',
'utf8',
);
}
});
});
// ─── ADR-1244 D2 overlay wiring — capability-state sees installed overlays ───
describe('ADR-1244 D2: overlay-aware registry wiring in capability-state', () => {
// Verifies that resolveCapabilityRuntimeState uses loadRegistry({includeInstalled:true})
// so a valid installed overlay capability appears in the capabilities list.
// The overlay cap has no activationKey so it activates freely.
const { resolveCapabilityRuntimeState } = require('../gsd-core/bin/lib/capability-state.cjs');
test('valid overlay capability appears in runtime state capabilities list', () => {
const overlayHome = fs.mkdtempSync(path.join(os.tmpdir(), 'cap-state-overlay-'));
const prevGsdHome = process.env.GSD_HOME;
try {
// Write a valid overlay capability manifest
const capDir = path.join(overlayHome, '.gsd', 'capabilities', 'my-overlay-cap');
fs.mkdirSync(capDir, { recursive: true });
const capManifest = {
id: 'my-overlay-cap',
role: 'feature',
version: '1.0.0',
title: 'My Overlay Cap',
description: 'ADR-1244 D2 wiring test overlay',
tier: 'standard',
requires: [],
engines: { gsd: '>=0.0.0' },
runtimeCompat: { supported: ['*'], unsupported: [] },
skills: [], agents: [], hooks: [], config: {}, steps: [], contributions: [], gates: [],
};
fs.writeFileSync(path.join(capDir, 'capability.json'), JSON.stringify(capManifest), 'utf8');
// Point GSD_HOME to the overlay home so loadRegistry finds it
process.env.GSD_HOME = overlayHome;
// Use a non-existent cwd so no project-scope overlay is scanned — pure global
const nonExistentCwd = path.join(os.tmpdir(), 'cap-state-overlay-cwd-' + Date.now());
const result = resolveCapabilityRuntimeState(nonExistentCwd, undefined);
const overlayEntry = result.capabilities.find((c) => c.id === 'my-overlay-cap');
assert.ok(
overlayEntry !== undefined,
'overlay capability "my-overlay-cap" must appear in resolveCapabilityRuntimeState results ' +
'(ADR-1244 D2: capability-state must use overlay-aware loadRegistry)',
);
} finally {
if (prevGsdHome === undefined) delete process.env.GSD_HOME;
else process.env.GSD_HOME = prevGsdHome;
cleanup(overlayHome);
}
});
});
// ─── #1459 IC-04: capability-state threads the consent home (GSD_HOME) to loadRegistry ───
describe('#1459 IC-04: capability-state threads gsdHome to the overlay loader', () => {
const { mock } = require('node:test');
const { resolveCapabilityRuntimeState } = require('../gsd-core/bin/lib/capability-state.cjs');
// The SAME cached loader module instance capability-state requires internally — spy its loadRegistry.
const loader = require('../gsd-core/bin/lib/capability-loader.cjs');
test('resolveCapabilityRuntimeState passes gsdHome=process.env.GSD_HOME to EVERY overlay-aware loadRegistry call', () => {
// revert-fails: if ANY consumer reached on this path (capability-state itself, or the federated
// config-loader it calls via loadConfig) called loadRegistry({ includeInstalled, cwd }) WITHOUT
// gsdHome (the pre-IC-04 form), that call's captured options.gsdHome would be undefined while
// process.env.GSD_HOME is set, so the per-call strictEqual below fails. The loader's behavioral
// env-fallback would still resolve the right home, masking the regression — only this
// explicit-threading spy pins the contract that every consumer forwards the home it sees. We assert
// EVERY includeInstalled call (not just the last) so reverting any single consumer's threading fails.
const home = fs.mkdtempSync(path.join(os.tmpdir(), 'cap-state-ic04-'));
const cwd = fs.mkdtempSync(path.join(os.tmpdir(), 'cap-state-ic04-cwd-'));
const prev = process.env.GSD_HOME;
const calls = [];
const spy = mock.method(loader, 'loadRegistry', function (opts) {
calls.push(opts || {});
return realRegistry; // a valid registry shape; we only assert on the call options.
});
try {
process.env.GSD_HOME = home;
resolveCapabilityRuntimeState(cwd, null);
const overlayCalls = calls.filter((o) => o.includeInstalled === true);
assert.ok(overlayCalls.length > 0, 'at least one overlay-aware loadRegistry call was made on this path');
for (const o of overlayCalls) {
assert.strictEqual(o.gsdHome, home, 'every overlay-aware loadRegistry call threads gsdHome = process.env.GSD_HOME (IC-04)');
}
} finally {
spy.mock.restore();
if (prev === undefined) delete process.env.GSD_HOME; else process.env.GSD_HOME = prev;
cleanup(home);
cleanup(cwd);
}
});
});