54f8389e9e
L'app d'exemple a servi de juge, et elle a immédiatement montré ce que l'inventaire ne montrait pas : pour partager une note elle résolvait l'inbox du destinataire, pour lire ses messages elle résolvait l'adresse de la sienne. Deux gestes qu'aucune application n'aura à faire une fois la chose native — donc deux gestes qu'elle ne doit pas apprendre. - `shareCap(cap, toUser)` remplace `shareCap(cap, toInbox)`. Partager est un acte envers quelqu'un ; où est son inbox regarde la bibliothèque. - `inbox.readForDocument(doc)` : le propriétaire lit ses messages en nommant la note, comme le déposant la nomme pour en laisser un. - `storeRegistry.userInbox` et `documentInboxAddress` sortent de la surface publiée. Ils restent joignables en interne, où le shim en a besoin. Sortent aussi de `/polyfill`, chacun parce qu'une app qui code contre apprend ce qu'il faudra désapprendre : - `getCaps` / `CapRegistry` — la salle des machines. La question du consommateur est `capFor(doc)` : est-ce que je le détiens ? Le registre n'a ni successeur ni forme inerte ; ce qui s'appuie dessus sera à réécrire, pas à laisser en place. - `getCurrentUser` — une app sait qui elle a connecté ; le redemander à la bibliothèque est une commodité du wallet partagé. - `virtualUsers` / `IdentityStore` — se souvenir d'une identité entre deux sessions est aussi le travail de l'app en amont. L'écran d'accès persiste ce dont IL a besoin ; rien d'autre n'a à être exposé. Reste sur `/polyfill` ce qu'une app appelle vraiment : `configure` et `setCurrentUser`. Le reste y est du test ou de l'injection interne. 170 tests unitaires, e2e 42/42 contre le broker, typecheck vert sur la bibliothèque, l'exemple et le harnais.
141 lines
5.7 KiB
TypeScript
141 lines
5.7 KiB
TypeScript
import { getCaps } from "../src/shared-wallet/bootstrap";
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import { test, expect, mock, afterAll } from "bun:test";
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import { readUnion } from "../src/surface/read-model";
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import type { Nuri } from "../src/model/types";
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import {configure,configureStoreRegistry,resetCaps,setCurrentUser} from "../src/polyfill";
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// The cap registry is process-wide, so each inject() starts from an empty one:
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// once ANY cap exists the possession gate is in force for every reader, and a
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// suite that never declares caps must not inherit another suite's.
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afterAll(() => {
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resetCaps();
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setCurrentUser(null);
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});
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// A fake `ng` whose sparql_query answers the ANCHORED per-doc query (SELECT ?s ?p ?o
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// WHERE { ?s ?p ?o }, anchor = the doc NURI) with ONLY that doc's triples. There is
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// NO anchorless union scan: each doc is read independently by its own anchor. Each
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// entity subject IRI IS its own document NURI (writeEntity convention), so the
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// fixture keys triples by the doc NURI and returns them for the matching anchor.
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function fakeNgWith(triplesByDoc: Record<string, Array<[string, string]>>) {
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return {
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doc_create: mock(async () => "did:ng:o:new"),
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sparql_update: mock(async () => undefined),
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sparql_query: mock(async (_sid: string, _query: string, _base: unknown, anchor: unknown) => {
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// Every read is ANCHORED to one doc NURI — never anchorless.
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if (anchor === undefined) {
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throw new Error("read-model must NEVER run an anchorless (union) query");
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}
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const doc = anchor as string;
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const triples = triplesByDoc[doc];
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if (!triples) return { results: { bindings: [] } };
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const bindings = triples.map(([p, o]) => ({
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s: { value: doc },
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p: { value: p },
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o: { value: o },
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}));
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return { results: { bindings } };
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}),
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};
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}
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function inject(triplesByDoc: Record<string, Array<[string, string]>>) {
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const ng = fakeNgWith(triplesByDoc);
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resetCaps();
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setCurrentUser(null);
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configure({ ng: ng as any, useShape: (() => {}) as any });
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configureStoreRegistry({
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getSession: async () => ({ sessionId: "sid-rm", privateStoreId: "priv" }),
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normalizeId: (u: string) => u,
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});
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return ng;
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}
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const TYPE = "http://www.w3.org/1999/02/22-rdf-syntax-ns#type";
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const FP = "http://festipod.org/";
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test("readUnion reads each doc with its OWN anchored query (never anchorless)", async () => {
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const ng = inject({
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"did:ng:o:a": [[TYPE, `${FP}Event`], [`${FP}title`, "A"]],
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"did:ng:o:b": [[TYPE, `${FP}Event`], [`${FP}title`, "B"]],
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});
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const subjects = await readUnion(["did:ng:o:a", "did:ng:o:b"]);
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// One anchored query per doc = 2 sparql_query calls, each anchored (c[3] set).
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expect(ng.sparql_query).toHaveBeenCalledTimes(2);
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const anchored = ng.sparql_query.mock.calls.filter((c: unknown[]) => c[3] !== undefined);
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expect(anchored.length).toBe(2);
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// The anchors are exactly the requested doc NURIs.
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expect(new Set(anchored.map((c: unknown[]) => c[3]))).toEqual(
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new Set(["did:ng:o:a", "did:ng:o:b"]),
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);
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expect(subjects.length).toBe(2);
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const a = subjects.find((s) => s.subject === "did:ng:o:a")!;
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expect(a.props[`${FP}title`]).toEqual(["A"]);
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expect(a.graph).toBe("did:ng:o:a");
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});
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test("readUnion groups predicates per subject", async () => {
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inject({
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"did:ng:o:p": [
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[TYPE, `${FP}Participation`],
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[`${FP}event`, "did:ng:o:e"],
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[`${FP}user`, "urn:festipod:user:x"],
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],
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});
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const s = (await readUnion(["did:ng:o:p"]))[0]!;
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expect(s.subject).toBe("did:ng:o:p");
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expect(s.props[`${FP}event`]).toEqual(["did:ng:o:e"]);
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expect(s.props[`${FP}user`]).toEqual(["urn:festipod:user:x"]);
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});
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test("readUnion returns [] for an empty doc set (no query)", async () => {
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const ng = inject({});
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const subjects = await readUnion([]);
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expect(subjects).toEqual([]);
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expect(ng.sparql_query).toHaveBeenCalledTimes(0);
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});
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test("a doc that fails to read is skipped, not aborting the batch", async () => {
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const ng = fakeNgWith({ "did:ng:o:ok": [[TYPE, `${FP}Event`], [`${FP}title`, "ok"]] });
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const orig = ng.sparql_query;
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// Make the anchored read throw for the bad doc only.
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ng.sparql_query = mock(async (sid: string, query: string, base: unknown, anchor: unknown) => {
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if (anchor === "did:ng:o:bad") throw new Error("RepoNotFound");
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return orig(sid, query, base, anchor);
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}) as any;
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configure({ ng: ng as any, useShape: (() => {}) as any });
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configureStoreRegistry({
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getSession: async () => ({ sessionId: "sid-rm", privateStoreId: "priv" }),
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normalizeId: (u: string) => u,
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});
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const subjects = await readUnion(["did:ng:o:ok", "did:ng:o:bad"]);
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// The bad doc failed its read but the good one still lists.
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expect(subjects.map((s) => s.subject)).toEqual(["did:ng:o:ok"]);
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});
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// The possession gate, at the read-model's own level: once ANY cap exists, a doc
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// whose cap is not in what the current holder holds is dropped — however well its
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// NURI resolves. Before the first cap the gate is inert (no regression).
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test("readUnion drops a doc whose cap the holder does not hold", async () => {
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inject({
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"did:ng:o:mine": [[TYPE, `${FP}Event`], [`${FP}title`, "mine"]],
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"did:ng:o:theirs": [[TYPE, `${FP}Event`], [`${FP}title`, "theirs"]],
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});
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const both: Nuri[] = ["did:ng:o:mine", "did:ng:o:theirs"];
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// Inert: no cap issued yet → everything flows through.
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expect((await readUnion(both)).map((s) => s.subject).sort()).toEqual(both);
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// One cap issued → possession is now the rule for every document.
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setCurrentUser("alice");
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getCaps().mint("did:ng:o:mine");
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expect((await readUnion(both)).map((s) => s.subject)).toEqual(["did:ng:o:mine"]);
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// …and for every holder: bob holds nothing, so bob reads nothing.
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setCurrentUser("bob");
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expect(await readUnion(both)).toEqual([]);
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});
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