test+feat(stammbaum): preserve all SPOUSE_OF edges in layout (#361)

Switches spousePairs from Map<string, string> to Map<string, Set<string>>
so multi-spouse persons (canonical case: Albert de Gruyter, 4 marriages)
keep every partner instead of losing the earlier .set() values.

The behavioural discriminator (now exercised by
attaches_loose_multi_spouse_to_parented_partner_when_edge_order_clobbers)
is a loose person with both a parented and a loose spouse: the old map
clobbered to whichever edge landed last, so the loose-placement step could
miss the parented partner and merge the focal node into the wrong block.

Also closes the robustness gap NullX flagged: SPOUSE_OF edges referencing
IDs outside allNodes are dropped at ingestion instead of leaking into the
spouse-pulldown loop.

Co-Authored-By: Claude Opus 4.7 <noreply@anthropic.com>
This commit is contained in:
Marcel
2026-05-28 20:03:52 +02:00
parent 36bd7e0414
commit 2a462d0a7c
2 changed files with 166 additions and 32 deletions

View File

@@ -1,5 +1,6 @@
import { describe, it, expect } from 'vitest'; import { describe, it, expect } from 'vitest';
import { buildLayout, NODE_H, ROW_GAP } from './buildLayout'; import { buildLayout, NODE_W, NODE_H, COL_GAP, ROW_GAP } from './buildLayout';
import canonicalFixture from '../__fixtures__/stammbaum.json';
import type { components } from '$lib/generated/api'; import type { components } from '$lib/generated/api';
type PersonNodeDTO = components['schemas']['PersonNodeDTO']; type PersonNodeDTO = components['schemas']['PersonNodeDTO'];
@@ -111,3 +112,106 @@ describe('buildLayout — generation seeding (#689)', () => {
expect(yOf(layout, NEGATIVE_C)).toBe(2 * (NODE_H + ROW_GAP)); expect(yOf(layout, NEGATIVE_C)).toBe(2 * (NODE_H + ROW_GAP));
}); });
}); });
describe('buildLayout — multi-spouse + intra-family marriage (#361)', () => {
const FOCAL = '00000000-0000-0000-0000-000000000010';
const SPOUSE_X = '00000000-0000-0000-0000-000000000011';
const SPOUSE_Y = '00000000-0000-0000-0000-000000000012';
const UNKNOWN = '00000000-0000-0000-0000-000000000099';
it('preserves_both_marriages_when_person_has_two_SPOUSE_OF_edges', () => {
// Before #361 the spouse map was Map<string, string>; the second
// .set() clobbered the first, so a person with N spouses (Albert de
// Gruyter, 4) silently lost N-1 of them. Asserting that every spouse
// has a layout position is the minimal presence check.
const layout = buildLayout(
[node(FOCAL, 'Focal', 3), node(SPOUSE_X, 'Alice'), node(SPOUSE_Y, 'Bob')],
[spouseEdge(FOCAL, SPOUSE_X, 'fx'), spouseEdge(FOCAL, SPOUSE_Y, 'fy')]
);
expect(layout.positions.get(FOCAL)).toBeDefined();
expect(layout.positions.get(SPOUSE_X)).toBeDefined();
expect(layout.positions.get(SPOUSE_Y)).toBeDefined();
});
it('ignores_SPOUSE_OF_edge_with_unknown_relatedPersonId', () => {
// Robustness gap flagged by NullX during persona review: an edge
// pointing to a UUID not in the node list must not crash buildLayout
// and must not introduce a phantom node into the positions map.
const buildIt = () =>
buildLayout([node(FOCAL, 'Focal', 3)], [spouseEdge(FOCAL, UNKNOWN, 'fu')]);
expect(buildIt).not.toThrow();
const layout = buildIt();
expect(layout.positions.get(FOCAL)).toBeDefined();
expect(layout.positions.get(UNKNOWN)).toBeUndefined();
});
it('attaches_loose_multi_spouse_to_parented_partner_when_edge_order_clobbers', () => {
// The behavioural discriminator for the Map<string,string> -> Map<string,
// Set<string>> shape change. LF (loose) has two spouses: PARENTED
// (parented under an ancestor) and OTHER (loose). The PARENTED edge is
// inserted before the OTHER edge. Under the old map, the second .set()
// clobbered the first, so LF's recorded spouse was OTHER and LF fell
// into the "no parented spouse" branch — merged with OTHER far from
// PARENTED. Under the Set map, both spouses are retained and the
// loose-placement step picks the parented one, putting LF adjacent to
// PARENTED in the parented sibling block while OTHER stays alone.
const G0_ANCESTOR = '00000000-0000-0000-0000-0000000000b1';
const PARENTED = '00000000-0000-0000-0000-0000000000b2';
const LOOSE_FOCAL = '00000000-0000-0000-0000-0000000000b3';
const OTHER = '00000000-0000-0000-0000-0000000000b4';
const layout = buildLayout(
[
node(G0_ANCESTOR, 'Ancestor', 0),
node(PARENTED, 'Parented', 1),
node(LOOSE_FOCAL, 'LooseFocal', 1),
node(OTHER, 'OtherLoose', 1)
],
[
parentEdge(G0_ANCESTOR, PARENTED),
spouseEdge(LOOSE_FOCAL, PARENTED, 'lf-pt'),
spouseEdge(LOOSE_FOCAL, OTHER, 'lf-oth')
]
);
const posLF = layout.positions.get(LOOSE_FOCAL)!;
const posOTH = layout.positions.get(OTHER)!;
// With the fix, OTHER is isolated in its own loose block (far from LF).
// With the bug, LF and OTHER are merged into a dual-loose block (one
// node-width + col-gap apart).
expect(Math.abs(posLF.x - posOTH.x)).toBeGreaterThan(NODE_W + COL_GAP);
});
it('canonical_fixture_assigns_a_position_to_every_node_with_multiple_spouses', () => {
// Real-data structural assertion against the canonical Stammbaum
// snapshot. Today the only multi-spouse case is Albert de Gruyter
// (4 marriages); the assertion stays valid as the graph grows.
const fixtureNodes = canonicalFixture.nodes as unknown as PersonNodeDTO[];
const fixtureEdges = canonicalFixture.edges as unknown as RelationshipDTO[];
const layout = buildLayout(fixtureNodes, fixtureEdges);
const partners = new Map<string, Set<string>>();
for (const e of fixtureEdges) {
if (e.relationType !== 'SPOUSE_OF') continue;
addPartner(partners, e.personId, e.relatedPersonId);
addPartner(partners, e.relatedPersonId, e.personId);
}
const multi = [...partners.entries()].filter(([, set]) => set.size >= 2);
expect(multi.length).toBeGreaterThan(0);
for (const [id, set] of multi) {
expect(layout.positions.get(id)).toBeDefined();
for (const partnerId of set) {
expect(layout.positions.get(partnerId)).toBeDefined();
}
}
});
});
function addPartner(map: Map<string, Set<string>>, key: string, value: string) {
const s = map.get(key);
if (s) s.add(value);
else map.set(key, new Set([value]));
}

View File

@@ -23,7 +23,10 @@ export type Layout = {
export function buildLayout(allNodes: PersonNodeDTO[], allEdges: RelationshipDTO[]): Layout { export function buildLayout(allNodes: PersonNodeDTO[], allEdges: RelationshipDTO[]): Layout {
const parentToChildren = new Map<string, string[]>(); const parentToChildren = new Map<string, string[]>();
const childToParents = new Map<string, string[]>(); const childToParents = new Map<string, string[]>();
const spousePairs = new Map<string, string>(); // spousePairs is a Set per person so multi-spouse cases (#361) preserve all
// marriages instead of having later edges silently clobber earlier ones.
const spousePairs = new Map<string, Set<string>>();
const allNodeIds = new Set(allNodes.map((n) => n.id));
for (const e of allEdges) { for (const e of allEdges) {
switch (e.relationType) { switch (e.relationType) {
@@ -32,8 +35,12 @@ export function buildLayout(allNodes: PersonNodeDTO[], allEdges: RelationshipDTO
mapPush(childToParents, e.relatedPersonId, e.personId); mapPush(childToParents, e.relatedPersonId, e.personId);
break; break;
case 'SPOUSE_OF': case 'SPOUSE_OF':
spousePairs.set(e.personId, e.relatedPersonId); // Defensive guard against edges referencing IDs outside the
spousePairs.set(e.relatedPersonId, e.personId); // node list (stale or partial graph snapshots) — keeps every
// downstream iteration safely scoped to known nodes.
if (!allNodeIds.has(e.personId) || !allNodeIds.has(e.relatedPersonId)) break;
mapAddToSet(spousePairs, e.personId, e.relatedPersonId);
mapAddToSet(spousePairs, e.relatedPersonId, e.personId);
break; break;
} }
} }
@@ -77,17 +84,19 @@ export function buildLayout(allNodes: PersonNodeDTO[], allEdges: RelationshipDTO
changed = true; changed = true;
} }
} }
for (const [a, b] of spousePairs) { for (const [a, partners] of spousePairs) {
const ra = rank.get(a) ?? 0; for (const b of partners) {
const rb = rank.get(b) ?? 0; const ra = rank.get(a) ?? 0;
const m = Math.max(ra, rb); const rb = rank.get(b) ?? 0;
if (!locked.has(a) && ra < m) { const m = Math.max(ra, rb);
rank.set(a, m); if (!locked.has(a) && ra < m) {
changed = true; rank.set(a, m);
} changed = true;
if (!locked.has(b) && rb < m) { }
rank.set(b, m); if (!locked.has(b) && rb < m) {
changed = true; rank.set(b, m);
changed = true;
}
} }
} }
if (!changed) break; if (!changed) break;
@@ -175,15 +184,26 @@ export function buildLayout(allNodes: PersonNodeDTO[], allEdges: RelationshipDTO
// Step 2 + 3: handle loose nodes. // Step 2 + 3: handle loose nodes.
for (const id of ids) { for (const id of ids) {
if (memberLookup.has(id)) continue; if (memberLookup.has(id)) continue;
const spouse = spousePairs.get(id); // With multi-spouse, prefer attaching to a parented partner so the
const spouseLookup = spouse ? memberLookup.get(spouse) : undefined; // loose node sits inside the parented sibling block. The choice is
// stable across runs because spousePairs is iterated in edge-
// insertion order; a future commit replaces this with a name/year
// sort.
const partners = spousePairs.get(id);
let parentedSpouse: string | undefined;
if (partners) {
for (const partnerId of partners) {
if (memberLookup.get(partnerId)?.parented) {
parentedSpouse = partnerId;
break;
}
}
}
if (spouseLookup && spouseLookup.parented) { if (parentedSpouse) {
// Spouse is parented — attach this loose node next to them on const spouseLookup = memberLookup.get(parentedSpouse)!;
// the outer edge of their sibling block so the marriage line
// is short and the sibling order is preserved.
const block = blocksByKey.get(spouseLookup.key)!; const block = blocksByKey.get(spouseLookup.key)!;
const spouseIdx = block.members.findIndex((m) => m.id === spouse); const spouseIdx = block.members.findIndex((m) => m.id === parentedSpouse);
const insertOnRight = spouseIdx >= block.members.length / 2; const insertOnRight = spouseIdx >= block.members.length / 2;
const insertAt = insertOnRight ? spouseIdx + 1 : spouseIdx; const insertAt = insertOnRight ? spouseIdx + 1 : spouseIdx;
block.members.splice(insertAt, 0, { id, parented: false }); block.members.splice(insertAt, 0, { id, parented: false });
@@ -200,21 +220,25 @@ export function buildLayout(allNodes: PersonNodeDTO[], allEdges: RelationshipDTO
} }
} }
// Merge dual-loose spouse blocks into a single 2-person block. // Merge dual-loose spouse blocks into a single block. With multi-spouse,
// iterate every partner so a loose person with N loose marriages ends
// up in one shared block instead of leaving stragglers behind.
const removed = new Set<string>(); const removed = new Set<string>();
for (const [key, block] of blocksByKey) { for (const [key, block] of blocksByKey) {
if (!key.startsWith('__loose__')) continue; if (!key.startsWith('__loose__')) continue;
if (removed.has(key)) continue; if (removed.has(key)) continue;
const member = block.members[0]; const member = block.members[0];
const spouse = spousePairs.get(member.id); const partners = spousePairs.get(member.id);
if (!spouse) continue; if (!partners) continue;
const spouseLookup = memberLookup.get(spouse); for (const partnerId of partners) {
if (!spouseLookup || removed.has(spouseLookup.key)) continue; const spouseLookup = memberLookup.get(partnerId);
if (spouseLookup.key === key) continue; if (!spouseLookup || removed.has(spouseLookup.key)) continue;
if (!spouseLookup.key.startsWith('__loose__')) continue; if (spouseLookup.key === key) continue;
const otherBlock = blocksByKey.get(spouseLookup.key)!; if (!spouseLookup.key.startsWith('__loose__')) continue;
block.members.push(...otherBlock.members); const otherBlock = blocksByKey.get(spouseLookup.key)!;
removed.add(spouseLookup.key); block.members.push(...otherBlock.members);
removed.add(spouseLookup.key);
}
} }
for (const key of removed) blocksByKey.delete(key); for (const key of removed) blocksByKey.delete(key);
@@ -277,3 +301,9 @@ function mapPush<K, V>(map: Map<K, V[]>, key: K, value: V) {
if (arr) arr.push(value); if (arr) arr.push(value);
else map.set(key, [value]); else map.set(key, [value]);
} }
function mapAddToSet<K, V>(map: Map<K, Set<V>>, key: K, value: V) {
const s = map.get(key);
if (s) s.add(value);
else map.set(key, new Set([value]));
}