Files
ng-eventually/packages/client/test/store-registry.test.ts
T
Sylvain Duchesne 107f9d1633 refactor(vocabulary): les noms publiés parlent la langue de la cible, et un test le tient
La correction de nomenclature du 2026-07-30 — en amont un *wallet* n'est qu'un
trousseau, ce qui possède des stores est un **user** (un *site*) — s'était faite
à la main. `walletInbox` y a échappé et a vécu des semaines, en faisant des
dégâts : le nom rendait « une inbox par wallet » évident, masquant qu'un user en
a **deux** en amont (repos de store public et protected, les deux seuls
`AddInboxCap` du moteur). Une discipline appliquée à la main en oublie un ; un
test non.

D'où `test/vocabulary.test.ts` : tout nom publié est bâti sur des mots que la
CIBLE emploie — vérifiés dans `nextgraph-rs` — ou porte un marqueur disant
POURQUOI il n'existe qu'ici (`virtual`, `physical`, `shim`, `emulated`,
`polyfill`), ce qui dit aussi quand il disparaît. Un échec n'est pas « renommer
pour faire passer le test », c'est une question : la cible a-t-elle un mot pour
ça ? la chose n'existe-t-elle qu'ici ? le mot est-il vraiment de la glue ?

Ce que le test a trouvé, et les réponses :

- `walletInbox` → `userInbox`, avec l'écart de cardinalité écrit noir sur blanc
  plutôt que caché par le nom.
- `accounts` / `AccountRecord` / `AccountStorage` → `virtualUsers` /
  `VirtualUserRecord` / `VirtualUserStorage`, module `accounts.ts` →
  `virtual-users.ts`. « account » n'est pas de la cible : c'est notre mot pour
  l'utilisateur virtuel, et le marqueur le dit désormais.
- `readModel` → la fonction `readUnion`, exposée directement. « model » n'était
  ni de la cible ni de la glue, et le namespace ne tenait qu'une fonction.
- Le reste était du vocabulaire légitime à déclarer (`subject`, `base`,
  `schema`, `connected`, le modèle réactif de l'ORM).

Corrigé au passage, sur signalement du contrat interne : l'en-tête d'`open-repo`
justifiait son correctif par un mécanisme que le source contredit. Un repo absent
de `self.repos` lève bien `RepoNotFound`
(`engine/verifier/src/request_processor.rs:264,269`). Les 0 lignes observées
viennent d'ailleurs — `Verifier::load` repeuple `self.repos` depuis le stockage
sur un profil persistant (`verifier.rs:535-560`), et notre propre `readDoc`
attrape toute erreur et rend `[]`. Le correctif est bon, le diagnostic écrit à
côté ne l'était pas.

159 tests unitaires, typecheck src/test/e2e vert, e2e 40/40 contre le broker.
2026-08-04 14:35:01 +02:00

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import { test, expect, mock, beforeEach, afterAll } from "bun:test";
import {
ensureAccount,
resolveWriteGraph,
resolveAccount,
listMyEntityDocs,
resolveScopeGraph,
userInbox,
createEntityDoc,
resetRegistryCache,
} from "../src/shared-wallet/account-registry";
import type { RegistrySession } from "../src/shared-wallet/account-registry";
import {
configure,
configureStoreRegistry,
resetStoreRegistry,
resetConfig,
} from "../src/polyfill";
// This suite injects a fake `ng` via configure(); bun runs test files in a
// shared process with a single module singleton, and may run this file BEFORE
// docs.test.ts's order-dependent "not configured" guard. Restore the un-
// configured state when we're done so that guard still sees a null config.
afterAll(() => {
resetConfig();
resetStoreRegistry();
});
// NOTE ORDER: the "not configured → throw" case MUST run first — configure*()
// sets module-level singletons and this suite never fully un-injects the real
// `ng` (docs' getConfig has no reset), so we exercise the registry-deps guard.
test("throws a clear error when configureStoreRegistry() was not called", async () => {
resetStoreRegistry();
resetRegistryCache();
await expect(ensureAccount("alice")).rejects.toThrow(
/configureStoreRegistry\(\) must be called before use/,
);
});
// --- A stateful fake `ng` that emulates just enough SPARQL over an in-memory
// quad store: INSERT DATA parsing + the two SELECT shapes the registry issues.
interface Quad { g: string; s: string; p: string; o: string }
/** Reverse of the lib's escapeLiteral: single left-to-right pass over `\x`. */
function unescapeLiteral(s: string): string {
let out = "";
for (let i = 0; i < s.length; i++) {
if (s[i] === "\\" && i + 1 < s.length) {
const next = s[++i];
out +=
next === "n" ? "\n" : next === "r" ? "\r" : next === "t" ? "\t" : next;
} else {
out += s[i];
}
}
return out;
}
function makeFakeNg() {
const quads: Quad[] = [];
let docCounter = 0;
const doc_create = mock(async (..._a: unknown[]) => `did:ng:o:doc${++docCounter}`);
// Parses `INSERT DATA { GRAPH <g> { <s> <p> "o"/<o>/;-lists } }`. The literal
// pattern honours backslash-escapes (`\"`, `\\`, `\n`…) so an escaped quote
// inside a value does NOT terminate the literal — this is what proves the
// injection escaping keeps the query well-formed.
const sparql_update = mock(async (...a: unknown[]) => {
const query = a[1] as string;
const anchor = a[2] as string | undefined;
// TWO shapes coexist here:
// - the shim account write STILL uses `GRAPH <${privateStore}>` — the
// private STORE repo's graph name equals the plain store NURI, so it
// round-trips (login must not regress). Key it by that GRAPH IRI.
// - the per-entity INDEX write has NO explicit GRAPH — the real broker keys
// it by the ANCHORED repo's default graph (repo_graph_name(id, overlay)),
// so key it by the ANCHOR arg (a[2]). An explicit `GRAPH <indexDoc>`
// would target a phantom graph → must NOT round-trip.
const gm = query.match(/GRAPH <([^>]+)>\s*\{([\s\S]*)\}/);
let g: string;
let body: string;
if (gm) {
g = gm[1]!;
body = gm[2]!;
} else {
if (!anchor) return undefined;
g = anchor;
body = query.replace(/^\s*INSERT DATA\s*\{/, "").replace(/\}\s*$/, "");
}
// Subject is the first <...> token in the body.
const sm = body.match(/<([^>]+)>/);
if (!sm) return undefined;
const s = sm[1]!;
// Predicate/object pairs: `<p> "o"` (escape-aware) or `<p> <o>`; `a <type>`.
const pairRe = /(?:a|<([^>]+)>)\s+(?:"((?:[^"\\]|\\.)*)"|<([^>]+)>)/g;
let m: RegExpExecArray | null;
// Skip the subject token so we don't treat it as a predicate.
const after = body.slice(body.indexOf(sm[0]) + sm[0].length);
while ((m = pairRe.exec(after)) !== null) {
const p = m[1] ?? "urn:ng-eventually:shim:Account"; // `a` → rdf:type-ish
const o = m[2] !== undefined ? unescapeLiteral(m[2]) : (m[3] ?? "");
quads.push({ g, s, p, o });
}
return undefined;
});
const sparql_query = mock(async (...a: unknown[]) => {
const query = a[1] as string;
const anchor = a[3] as string | undefined;
// Pointer SELECT: `<shim:root> <shim:shimDoc> ?shimDoc` in the store-root graph.
if (query.includes("<urn:ng-eventually:shim:shimDoc>")) {
const bindings = quads
.filter((q) => q.g === anchor && q.p === "urn:ng-eventually:shim:shimDoc")
.map((q) => ({ shimDoc: { value: q.o } }));
return { results: { bindings } };
}
if (query.includes("<urn:ng-eventually:shim:id>")) {
// Account SELECT, anchored to the doc-shim's default graph (records live in the
// doc-shim now, no GRAPH wrapper). Two shapes: the full scan (`?acc a <Account>`)
// and the TARGETED bounded resolve (`<subj> a <Account>`) — honour the subject.
const subjM = query.match(/<([^>]+)>\s+a\s+<urn:ng-eventually:shim:Account>/);
const onlySubject = subjM ? subjM[1]! : null;
const bySubject = new Map<string, Record<string, string>>();
for (const q of quads) {
if (q.g !== anchor) continue;
if (onlySubject !== null && q.s !== onlySubject) continue;
const rec = bySubject.get(q.s) ?? {};
if (q.p === "urn:ng-eventually:shim:id") rec.id = q.o;
if (q.p === "urn:ng-eventually:shim:docPublic") rec.docPublic = q.o;
if (q.p === "urn:ng-eventually:shim:docProtected") rec.docProtected = q.o;
if (q.p === "urn:ng-eventually:shim:docPrivate") rec.docPrivate = q.o;
bySubject.set(q.s, rec);
}
const bindings = [...bySubject.values()]
.filter((r) => r.id)
.map((r) => ({
id: { value: r.id! },
docPublic: { value: r.docPublic ?? "" },
docProtected: { value: r.docProtected ?? "" },
docPrivate: { value: r.docPrivate ?? "" },
}));
return { results: { bindings } };
}
// Entity-index SELECT: `<index> <contains> ?e` in the anchor graph.
const bindings = quads
.filter((q) => q.g === anchor && q.p === "urn:ng-eventually:shim:contains")
.map((q) => ({ e: { value: q.o } }));
return { results: { bindings } };
});
return { doc_create, sparql_update, sparql_query, _quads: quads };
}
const SESSION: RegistrySession = { sessionId: "sid-1", privateStoreId: "PRIV" };
function inject() {
const ng = makeFakeNg();
configure({ ng: ng as any, useShape: (() => {}) as any });
configureStoreRegistry({
getSession: async () => SESSION,
normalizeId: (u) => u.trim().replace(/^@+/, "").toLowerCase(),
});
resetRegistryCache();
return ng;
}
let fake: ReturnType<typeof makeFakeNg>;
beforeEach(() => {
fake = inject();
});
test("ensureAccount creates 3 scope docs and persists them to the doc-shim", async () => {
const rec = await ensureAccount("Alice");
expect(rec.id).toBe("Alice");
// 4 doc_create: 1 doc-shim (first login, resolveShimDoc) + 3 scope docs.
expect(fake.doc_create).toHaveBeenCalledTimes(4);
expect(rec.docPublic).toMatch(/^did:ng:o:doc/);
expect(rec.docProtected).not.toBe(rec.docPublic);
expect(rec.docPrivate).not.toBe(rec.docProtected);
// The pointer (store-root -> doc-shim) was written into the store-root graph.
const pointerWrite = fake.sparql_update.mock.calls.find(
(c) => (c[1] as string).includes("<urn:ng-eventually:shim:shimDoc>"),
);
expect(pointerWrite?.[2]).toBe("did:ng:PRIV");
// The account record was persisted into the doc-shim (a did:ng:o: repo), not the root.
const recordWrite = fake.sparql_update.mock.calls.find(
(c) => (c[1] as string).includes("<urn:ng-eventually:shim:docPublic>"),
);
expect(recordWrite?.[2]).toMatch(/^did:ng:o:doc/);
});
test("ensureAccount is idempotent (case/@-insensitive key), no extra docs", async () => {
const a = await ensureAccount("Alice");
const b = await ensureAccount("@alice");
expect(b).toEqual(a);
expect(fake.doc_create).toHaveBeenCalledTimes(4); // 1 doc-shim + 3 scope docs, not 7
});
test("ensureAccount de-dupes CONCURRENT provisions (anti-fork): one account, 3 docs", async () => {
// The reconnection FORK: several callers (watchShape public+protected, the
// container subs, the owned-events effect) hit ensureAccount(SAME id) BEFORE
// the shim has synced, so each reads 0 rows and independently provisions a new
// set of scope docs — N forks, N×3 docs, duplicate docPublic/docProtected in the
// shim → a fresh reader picks a different canonical doc than the writer wrote to.
// The in-flight de-dup collapses N concurrent provisions into ONE.
const results = await Promise.all([
ensureAccount("Bob"),
ensureAccount("Bob"),
ensureAccount("@bob"),
ensureAccount("BOB"),
ensureAccount("bob"),
]);
// ONE set of 3 scope docs + 1 doc-shim (resolveShimDoc de-dupes concurrent pointer
// resolution too) — 4 total, not 5×3.
expect(fake.doc_create).toHaveBeenCalledTimes(4);
// Every caller got the SAME record (same docs), so writer/reader can never
// disagree on the canonical scope doc.
for (const r of results) expect(r).toEqual(results[0]!);
});
test("resolveWriteGraph returns the per-scope index doc", async () => {
const rec = await ensureAccount("Carol");
expect(await resolveWriteGraph("carol", "protected")).toBe(rec.docProtected);
});
test("resolveScopeGraph maps scopes to native store NURIs (no store-id leaks to the caller)", async () => {
// Session with all three store ids: private → private store; public+protected
// co-locate on the protected native store (the polyfill's Axis-A placement).
const ng = makeFakeNg();
configure({ ng: ng as any, useShape: (() => {}) as any });
configureStoreRegistry({
getSession: async () => ({
sessionId: "sid-2",
privateStoreId: "PRIV",
protectedStoreId: "PROT",
publicStoreId: "PUB",
}),
});
resetRegistryCache();
expect(await resolveScopeGraph("private")).toBe("did:ng:PRIV");
expect(await resolveScopeGraph("protected")).toBe("did:ng:PROT");
expect(await resolveScopeGraph("public")).toBe("did:ng:PROT"); // co-located
// An inbox belongs to ONE virtual user — it is a dedicated document (from
// docCreate), not the private-store root, so deposits never bloat the shim graph.
// Stable per wallet, and DISJOINT between wallets: reading someone else's inbox
// would collect the caps addressed to them (see inbox.ts's read guard).
const mine = await userInbox("@alice");
expect(mine).toMatch(/^did:ng:o:doc/);
expect(mine).not.toBe("did:ng:PRIV");
expect(await userInbox("@alice")).toBe(mine); // stable
expect(await userInbox("@bob")).not.toBe(mine); // another wallet, another inbox
});
test("resolveScopeGraph falls back to the private store when no protected id is injected", async () => {
// The default SESSION carries only privateStoreId — non-private scopes fall
// back to the private store rather than emitting a broken NURI.
expect(await resolveScopeGraph("protected")).toBe("did:ng:PRIV");
expect(await resolveScopeGraph("public")).toBe("did:ng:PRIV");
});
test("createEntityDoc + listMyEntityDocs round-trip via the per-scope index", async () => {
const rec = await ensureAccount("Dave");
const e1 = await createEntityDoc("dave", "public");
const e2 = await createEntityDoc("dave", "public");
const other = await createEntityDoc("dave", "protected");
// Public listing unions dave's public entities only.
const pub = await listMyEntityDocs("dave", "public");
expect(pub.sort()).toEqual([e1, e2].sort());
const prot = await listMyEntityDocs("dave", "protected");
expect(prot).toEqual([other]);
// The index append targets the account's public index doc.
expect(rec.docPublic).toMatch(/^did:ng:o:doc/);
});
// --- SPARQL injection hardening (F1) --------------------------------------
//
// A malicious id must NOT be able to break out of the literal / IRI it
// lands in and inject arbitrary triples into the shim (the account→doc trust
// root). We inspect the exact SPARQL string the registry hands to sparql_update.
/** The raw INSERT DATA string produced by ensureAccount for `id`. */
async function insertFor(id: string): Promise<string> {
await ensureAccount(id);
const calls = fake.sparql_update.mock.calls;
return calls[calls.length - 1]![1] as string;
}
/** Count RAW (un-escaped) double-quotes — i.e. `"` not preceded by a `\`.
* Strip escaped pairs (`\\`, `\"`, …) first so only delimiter quotes remain. */
function rawQuoteCount(s: string): number {
const withoutEscapes = s.replace(/\\./g, "");
return (withoutEscapes.match(/"/g) ?? []).length;
}
test("injection: id with a quote cannot open extra literals", async () => {
const evil = 'x" ; <urn:evil> "pwn';
const update = await insertFor(evil);
// A well-formed INSERT DATA with 4 predicate literals has exactly 8 raw
// quotes (the delimiters). The injected `"` must have been escaped, so the
// count stays 8 — no extra literal was opened.
expect(rawQuoteCount(update)).toBe(8);
// The escaped id is present as a single literal value — the injected
// `<urn:evil>` survives only as INERT text inside that literal (its
// surrounding quotes are escaped `\"`), never as query syntax.
expect(update).toContain('"x\\" ; <urn:evil> \\"pwn"');
});
test("injection: id with '>' cannot break out of the account-subject IRI", async () => {
const evil = "x> <urn:evil";
const update = await insertFor(evil);
// The account subject is `<urn:ng-eventually:shim:account:...>` — the encoded
// id must NOT contain a raw `>` that would close the IRI early.
const subjMatch = update.match(/<urn:ng-eventually:shim:account:([^>]*)>/)!;
expect(subjMatch).not.toBeNull();
expect(subjMatch[1]).not.toMatch(/[<>" ]/); // fully percent-encoded
expect(subjMatch[1]).toContain("%3E"); // the `>` became %3E
});
test("injection: newline / control chars in id are neutralised", async () => {
const evil = "a\nb\tc";
const update = await insertFor(evil);
// In the literal: escaped to \n / \t (no raw control char).
expect(update).toContain('"a\\nb\\tc"');
// In the IRI subject: percent-encoded.
const subjMatch = update.match(/<urn:ng-eventually:shim:account:([^>]*)>/)!;
expect(subjMatch[1]).toContain("%0A");
expect(subjMatch[1]).toContain("%09");
});
test("injection: '; DELETE'-style payload stays inert inside the literal", async () => {
const evil = 'x"} ; DELETE WHERE { ?s ?p ?o } ; INSERT DATA { <a> <b> "';
const update = await insertFor(evil);
// The whole attack survives, escaped, as ONE literal value — the injected
// `"}` cannot close the literal/graph, so DELETE/second-INSERT stay text.
expect(update).toContain(escapeLiteralRef(evil));
// Quote count stays even (all delimiters balanced; the injected `"` escaped):
// 4 predicate literals → 8 raw delimiter quotes, nothing extra opened.
expect(rawQuoteCount(update)).toBe(8);
// The injected `"}` did not survive as raw syntax (it was escaped to `\"}`).
expect(update).not.toMatch(/[^\\]"} ; DELETE/);
});
// Local mirror of the lib's escapeLiteral so the assertion is self-checking.
function escapeLiteralRef(v: string): string {
return `"${v
.replace(/\\/g, "\\\\")
.replace(/"/g, '\\"')
.replace(/\n/g, "\\n")
.replace(/\r/g, "\\r")
.replace(/\t/g, "\\t")}"`;
}
test("injection: a malicious id still round-trips through the shim", async () => {
const evil = 'eve" ; <urn:evil> "x';
const rec = await ensureAccount(evil);
expect(rec.id).toBe(evil);
resetRegistryCache();
// The stored id comes back verbatim (escaping is lossless) when resolved by its
// own key — and no injected extra subject answers in its place.
const back = await resolveAccount(evil);
expect(back?.id).toBe(evil);
expect(back?.docPublic).toBe(rec.docPublic);
});
test("normalizeId defaults to trim when not provided", async () => {
const ng = makeFakeNg();
configure({ ng: ng as any, useShape: (() => {}) as any });
// Synchronous fake store → no sync lag; disable the anti-fork retry backoff.
configureStoreRegistry({ getSession: async () => SESSION });
resetRegistryCache();
const a = await ensureAccount(" Ivy ");
const b = await ensureAccount("Ivy"); // trimmed key matches
expect(b).toEqual(a);
expect(ng.doc_create).toHaveBeenCalledTimes(4); // 1 doc-shim + 3 scope docs
});