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Author SHA1 Message Date
kamilkrzywda aa1bd3c5aa Merge pull request 'Re-coarsen RU-ARK Arctic-coast band into RU-PEO + RU-YAM (#41)' (#42) from feat/41-split-arkhangel-band into master
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2026-10-14 21:29:55 +02:00
kamilkrzywda f6ad554823 Re-coarsen RU-ARK Arctic-coast band into RU-PEO + RU-YAM (#41)
CI / build + unit + e2e (pull_request) Successful in 2m34s
#41: re-partition the RU-ARK mainland's 28-part lat>=68 Arctic-coast band
into two new regions via a new turf-free, idempotent pipeline stage
scripts/split-arkhangel-band.mjs (npm run split:regions:band), mirroring the
#31 split:

- RU-PEO (Pechora, 13 parts, ~37,678 km2) -> key pechora-qwhs
- RU-YAM (Yamal, 15 parts, ~51,722 km2) -> key yamal-gosw
- RU-ARK keeps its id/name/key arkhangel-sk-lhbk (ownership-safe); the 5-part
  lat<68 core (~305,229 km2) stays RU-ARK.

Pure re-partition: no geometry moved (byte-identical union). The two new
features are inserted immediately after RU-ARK-SZ. Manifests regenerated with
the real scripts (1,798 -> 1,800 keys + adjacency; adjacency pairs 4,471 ->
4,473). Fixed-point dataset unchanged except feature count (11,794 parts /
11,795 rings / 164,801 verts / 1 KZ-KZY hole). Four dataset/manifest tests
updated (RUS 82 -> 84 sub-regions). Version 0.25.0 -> 0.26.0.

Fixes #41
2026-10-14 19:26:49 +00:00
kamilkrzywda 867b2eb0a1 Merge pull request 'feat: split RU-ARK into mainland + New Earth + Severnaya Zemlya (v0.25.0, #31)' (#40) from feat/31-split-arkhangel into master
CI / build + unit + e2e (push) Failing after 14m43s
2026-10-14 19:57:50 +02:00
kamilkrzywda 8fb8984d07 chore: bump to v0.25.0 (#31) + CHANGELOG
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2026-10-14 17:54:45 +00:00
kamilkrzywda f593af5ba5 feat: split RU-ARK into mainland + New Earth + Severnaya Zemlya — idempotent stage, manifests 1,798 (v0.25.0, #31) 2026-10-14 17:54:45 +00:00
kamilkrzywda c63f6acca1 Merge pull request 'feat: nation-op split/merge — apply on confirm (v0.24.0, #16 P4b)' (#39) from feat/16-p4b-split-merge into master
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2026-10-14 15:49:31 +02:00
kamilkrzywda c0c620a54c docs: v0.24.0 changelog — #16 was already closed; reference it (no Fixes), matching P4a's PR #38
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2026-10-14 13:46:16 +00:00
kamilkrzywda 7eaed42d51 chore: bump to v0.24.0 (nation-op split/merge, #16 P4b) + CHANGELOG 2026-10-14 13:42:46 +00:00
kamilkrzywda 14c5d4881d feat: nation-op split/merge review — dialog (part list + successor radio, merge name), docs (P4b, #16) 2026-10-14 13:42:46 +00:00
kamilkrzywda 458e9be419 feat: nation-op split/merge — apply on confirm (playerPart, fresh ids, relations union) (P4b, #16) 2026-10-14 13:42:46 +00:00
kamilkrzywda f72a59bf5e Merge pull request 'feat: nation-op rename — LLM proposes, player confirms (v0.23.0, #16 P4a)' (#38) from feat/16-p4a-rename into master
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2026-10-14 15:03:41 +02:00
kamilkrzywda 6ebe21591e chore: bump to v0.23.0 (nation-op rename, #16 P4a) + CHANGELOG
CI / build + unit + e2e (pull_request) Successful in 2m26s
2026-10-14 13:00:33 +00:00
kamilkrzywda 9f230606c4 feat: nation-op rename review — confirm/reject routes, client dialog, AGENTS.md (P4a, #16)
Wire the 'LLM proposes, player confirms' nation-rename flow end to end:
- server: POST /api/games/:id/nation-op/confirm|reject (404/400, version-bumped SSE state)
- client: confirmNationOp/rejectNationOp api helpers + NationOpDialog (editable rename) wired into the Action panel via a 'Nation proposals' trigger
- AGENTS.md: document the pendingNationOps mechanism, routes, nationRef resolution, stub-never-proposes
2026-10-14 13:00:28 +00:00
kamilkrzywda e9fa267fd0 Nation-op proposals (P4a, #16): protocol types, pendingNationOps state, engine propose/resolve (stage 1)
- shared/protocol.ts: RenameOp/SplitOp/MergeOp + NationOp union; TurnResult.nationOps (required); ConfirmNationOp/RejectNationOp request+response types
- shared/types.ts: GameState.pendingNationOps (type-only import of NationOp — no runtime cycle)
- server/engine.ts: validateNationOps parser wired into validateTurnResult; isMeaningful counts proposals; applyTurnResult appends to the surviving pending list (never applies); runTurn fallback literal; system prompt gains the nationOps JSON field + rename proposal rule (both modes); new resolveNationRef/applyNationOp/confirmNationOp/rejectNationOp (id-first then unique case-insensitive name; rename changes Nation.name only; split/merge no-op until P4b; index validation returns null for 400)
- server/db.ts: legacy rows load with pendingNationOps defaulted to []
- server/index.ts: fresh games start with pendingNationOps: []
- server/stub.ts: deterministicTurn returns nationOps: [] (the stub never proposes — unit-only coverage, matching P3)
- tests: fixture updates (engine/db/map/regions) + new suites for resolveNationRef, validateNationOps, proposal lifecycle, confirm/reject (151 tests total)
2026-10-14 12:47:58 +00:00
kamilkrzywda edaa8f55d1 Merge pull request 'No man's land: region release + re-claim + distinct grey map rendering (v0.22.0) — part 3 of #16' (#37) from feat/16-p3-no-mans-land into master
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2026-10-14 14:09:22 +02:00
kamilkrzywda 6c52e10898 Bump to v0.22.0 (no man's land, #16 P3) + AGENTS.md/CHANGELOG
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2026-10-14 12:04:03 +00:00
kamilkrzywda 764f24fc55 No man's land: TurnResult.unowned + release/re-claim in applyTurnResult + distinct grey map rendering (#16 P3)
- shared/protocol.ts: TurnResult.unowned (keys released this turn) + the map
  presentation contract (regionFillStyle / unownedTooltipLabel, hue-less grey)
- shared/types.ts: required GameState.unowned (cumulative mid-game releases;
  [] at init, distinct from preset-unassigned regions)
- server/engine.ts: applyTurnResult applies releases first (sole-owner only,
  never fabricating no man's land from unassigned keys), then claims against
  the post-release snapshot (gain on an ownerless key = re-claim); lone
  release is isMeaningful; prompts + user payload carry the unowned field
- server/stub.ts: unchanged behavior (never releases; e2e stays stable)
- server/db.ts: legacy rows load with unowned defaulted to []
- server/index.ts: create-game sets []; jump reference table includes
  released keys so the model can name them for re-claim
- WorldMap/App: unowned prop -> visible grey + 'No man's land' tooltip
- unit tests: 105 -> 127 (release/re-claim suites, presentation contract,
  legacy-row normalization)
2026-10-14 12:04:03 +00:00
kamilkrzywda cb426273a9 Merge pull request 'Region transfers along real borders + getNeighbours LLM tool (v0.21.0) — part 2 of #16' (#36) from feat/16-p2-region-transfers into master
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2026-10-14 12:51:30 +02:00
kamilkrzywda 0b999f1448 Bump to v0.21.0 (region transfers + getNeighbours tool, #16 P2)
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2026-10-14 10:48:28 +00:00
kamilkrzywda 5abbebc58f LLM getNeighbours tool + contiguous region transfers (Stage 2 of #16 P2)
- llm.ts: LlmClient.chatWithTools — bounded OpenAI function-calling loop
  (default 6 tool rounds, then one forced no-tools request); shares the
  retry/backoff/reasoning-effort machinery with chat(); tools are only
  added to the request body when non-empty, so plain chat() bodies and
  their tests are unchanged; a tool-call response is a success (never a
  truncation); malformed tool arguments become an error tool-message.
- engine.ts: GET_NEIGHBOURS_TOOL + makeNeighboursExecutor (degrades
  unknown tools/args/keys without throwing); playerFrontier (sorted,
  deduped, other-nation-owned only); buildSystemPrompt gains a tool
  variant (contiguity rules, frontier hint) used only when the tool is
  actually sent; buildUserPrompt emits a frontier field whenever a
  resolver is given; runTurn takes getNeighbours and uses
  chatWithTools when both the resolver and the client's capability are
  present, falling back to plain chat() otherwise.
- applyTurnResult: snapshot-first sole-ownership algorithm — a region
  key transfers only with exactly one claimant and exactly one previous
  owner (different from the gainer); double claims and pre-existing
  double ownership are left untouched; lone losses are no-ops; every
  key has 0 or 2+ -> 1 owner post-turn, never orphaned or duplicated.
- stub.ts: deterministic one-region contiguous conquest per turn from
  the prompt's frontier field (bypasses the tool loop; empty frontier
  -> no transfer, all existing assertions stay stable).
- regions.ts: optional region-adjacency.json load; hasAdjacency() and
  neighboursOf(keys) (union, deduped, queried excluded, sorted).
- index.ts: jump route passes the adjacency resolver when loaded.
- tests: chatWithTools protocol (echo, executor args, bounded rounds,
  malformed args, retry), tool-path runTurn wiring + fallback,
  playerFrontier, executor, applyTurnResult invariants, neighboursOf/
  hasAdjacency (105 unit tests, 14 e2e — all green).
2026-10-14 10:37:25 +00:00
kamilkrzywda f53f9072f4 Build region-adjacency manifest (Stage 1 of #16 P2)
Generate public/region-adjacency.json: regionKey -> neighbourKeys, built
from regions.geo.json (bbox proximity reject + @turf/boolean-intersects
arbitration; symmetric, deduped, no self-refs). Deterministic + idempotent.

This is the data backing the LLM's getNeighbours tool (Stage 2) which lets
it move contiguous frontier regions instead of whole countries.
2026-10-14 10:05:06 +00:00
kamilkrzywda 6f14a4e4c0 Merge pull request 'Fix: region loader finds the manifest in prod (dist/) — completes P1 region ownership (v0.20.0)' (#35) from fix/16-p1-region-keys-prod into master
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Merge v0.20.0: region loader prod-path fix (completes #16 P1)
2026-10-14 11:35:22 +02:00
kamilkrzywda 6949739956 Bump to v0.20.0 (region loader prod-path fix)
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2026-10-14 09:32:29 +00:00
kamilkrzywda cf7d3cb122 Fix region loader to find the manifest in prod (dist/) — dev-vs-prod path (v0.20.0, completes #16 P1)
v0.19.0's region-level ownership did not activate in the production image:
server/regions.ts loadRegions only looked in public/, but the Docker image keeps
only dist/ (Vite copies public/* -> dist/ at build), so the loader found nothing
and expandCountriesToKeys degraded to a no-op — fresh games kept raw ISO_A3 codes
instead of region keys (the client's own /region-keys.json fetch still worked,
since the client is served from dist/).

loadRegions now probes public/ (dev) then dist/ (prod, == clientDir) and uses the
first directory holding both files. A new test covers the prod-only (dist/), dev
(public/), and empty-root (no data) layouts.
2026-10-14 09:32:29 +00:00
kamilkrzywda 99ee93f6da Merge pull request 'Region-level ownership foundation (Part 1 of #16) (v0.19.0)' (#34) from feat/16-p1-region-ownership into master
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Merge v0.19.0: region-level ownership (Part 1 of #16)
2026-10-14 11:18:12 +02:00
kamilkrzywda b9ac79c57f Bump to v0.19.0: region-level ownership (Part 1 of #16)
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Version 0.19.0 + changelog. Breaking: pre-v0.19 saved games are dropped
(territory now holds region keys, not ISO_A3 codes) — deploy wipes the
history-data volume.
2026-10-14 09:15:33 +00:00
kamilkrzywda 1c64aa1da4 Tests: region-key contract (map rewrite + regions loader + engine) (v0.19 P1 of #16)
- map.test.ts: rewrite the fixture for region keys; the #6 regression guard now
  proves the owner resolves via properties.regionKey while the repacked numeric
  feature.id and the sub-region regionId do not.
- regions.test.ts (new): the loader sees 1,796 valid keys; FRA expands to its
  42 sub-region keys (all valid, all labelled '… (FRA)'); allTerritoryKeys
  unions correctly; and with no data it degrades to the raw input.
- engine.test.ts: buildUserPrompt includes a regions table only when provided;
  applyTurnResult with a validKeys set applies real keys and ignores bogus ones,
  and without one applies all (the legacy/unit path).
2026-10-14 09:14:24 +00:00
kamilkrzywda 29927bae34 Flip the client to region-key resolution + region names in the dossier (v0.19 P1 of #16)
- src/lib/regions.ts (new): cached, turf-free same-origin fetches of
  /region-keys.json (feature id -> key) and /regions.geo.json (id -> name) so
  WorldMap and NationPanel share one fetch each.
- WorldMap.tsx: stamps each feature's properties.regionKey (from the manifest,
  by its stable id) and resolves owner / flash / hover / click from that key via
  the shared mapFeatureOwner; the per-region flash lights the exact sub-region
  whose owner changed; click carries only the sub-region name.
- NationPanel.tsx: territory chips show the region's human name (falling back
  to the raw key) with the key in the title / data-attr.
- App.tsx: the selected-region dossier label drops the now-unused parent code.
2026-10-14 09:14:17 +00:00
kamilkrzywda 325bdc5255 Flip ownership to region keys: shared contract + server (v0.19 P1 of #16)
The single source of truth now keys ownership by region key (one per owned
sub-region) instead of a parent-country ISO_A3:

- shared/types.ts, shared/protocol.ts: TerritoryChange / RegionMap / regionOwner
  doc flips; mapFeatureOwner now reads the feature's stamped properties.regionKey
  (never the repacked numeric feature.id, nor the sub-region id — the #6 guard).
- server/regions.ts (new, turf-free): loads region-keys.json + regions.geo.json
  once at boot; expands a nation's ISO_A3 list to its sub-regions' keys, builds
  the LLM 'regions' reference table (key -> "name (parent)"), and exposes the
  set of valid keys. Degrades gracefully when the files are missing.
- server/engine.ts: buildSystemPrompt instructs the model to use region keys;
  buildUserPrompt gains an optional regionReference table; applyTurnResult gains
  an optional validKeys set so hallucinated keys are ignored.
- server/index.ts: loads region data at boot; expands each nation's country list
  to region keys at game creation; the jump route passes the reference + valid
  keys through runTurn.

The stub is unchanged (it emits an empty, region-key-conformant territoryChanges).
2026-10-14 09:14:10 +00:00
kamilkrzywda 2cfa2f78f9 Add region-keys.test.ts: 1,796 unique <slug>-<4char> keys, geo-id join (v0.19 P1 of #16) 2026-10-14 08:32:36 +00:00
kamilkrzywda 2b84c34f41 Add region-key manifest (build:region-keys) + public/region-keys.json (v0.19 P1 of #16)
Deterministic <name-slug>-<4char> key per sub-region: name via NFKD strip +
fold table (ə ø ð đ œ ł) + a-z0-9 collapse; 4-char from FNV-1a of the stable
feature id, salted on within-slug collision so all 1,796 keys are unique.
Builtins only (no @turf). Idempotent (byte-identical on re-run).
2026-10-14 08:32:36 +00:00
kamilkrzywda 9c29779572 Merge pull request 'Region hover/selected shows current owner, not stale parent-country code (v0.18.0)' (#33) from fix/region-display-owner into master
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2026-10-13 21:15:45 +02:00
kamilkrzywda 3cd8dcecfa Stop printing the static parent-country code in the region hover tooltip and dossier label (v0.18.0)
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2026-10-13 18:58:43 +00:00
kamilkrzywda acb4f0800f Merge pull request 'Fill no-one's-land gaps between merged sub-regions (v0.17.0)' (#32) from feat/fill-gaps into master
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2026-10-13 17:48:17 +02:00
kamilkrzywda b1081eefde Fill no-one's-land gaps between merged sub-regions (v0.17.0)
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Part of #16
2026-10-13 15:18:31 +00:00
kamilkrzywda e92bf47d7d Merge pull request 'Smooth jagged sub-national region boundaries (v0.16.0)' (#30) from feat/smooth-regions into master
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2026-10-13 11:53:58 +02:00
kamilkrzywda f1cc4fbc10 Smooth jagged sub-national region boundaries (v0.16.0)
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Part of #16
2026-10-13 09:42:44 +00:00
kamilkrzywda 97702940cd Merge pull request 'Clean up holes/gaps in sub-national regions (v0.15.0)' (#29) from feat/cleanup-regions into master
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2026-10-12 16:00:44 +02:00
kamilkrzywda 8eedc37e05 Clean up holes/gaps in sub-national regions (v0.15.0)
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Part of #16
2026-10-12 13:51:47 +00:00
kamilkrzywda 69782aad69 Merge pull request 'Coarsen sub-national regions to a ~100km floor (v0.14.0)' (#28) from feat/coarsen-regions into master
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2026-10-12 11:59:39 +02:00
kamilkrzywda 7bf11fa5b9 Coarsen sub-national regions to ~100km floor (v0.14.0)
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Part of #16
2026-10-12 09:52:52 +00:00
kamilkrzywda db46e1a5ec Merge pull request 'Use real historical sub-national regions instead of the geometric grid (v0.13.0)' (#27) from feat/historical-regions into master
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2026-10-12 10:43:09 +02:00
kamilkrzywda 99188b5b15 Replace geometric sub-regions with real historical regions (v0.13.0)
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Part of #16
2026-10-12 08:33:07 +00:00
kamilkrzywda 0ebdb36daa Merge pull request 'Switch map to sub-national regions (v0.12.0)' (#26) from feat/sub-national-map into master
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2026-10-12 03:13:22 +02:00
kamilkrzywda 06cdbf3d81 Switch map to sub-national regions (v0.12.0)
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Part of #16
2026-10-12 01:07:33 +00:00
kamilkrzywda 344b5b4a5e Merge pull request 'Add sub-national regional dataset + generator (v0.11.0)' (#25) from feat/sub-national-regions into master
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2026-10-12 02:47:21 +02:00
kamilkrzywda d5285ce28d Add sub-national regional dataset + generator (v0.11.0)
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Fixes #16
2026-10-12 00:33:11 +00:00
kamilkrzywda 8252b665b5 Merge pull request 'Fix map coastal-water bleed-through and border lines (v0.10.0)' (#24) from feat/map-border-style into master
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2026-10-11 23:32:46 +02:00
kamilkrzywda 7d50cba061 Fix map coastal-water bleed-through and border lines (v0.10.0)
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Fixes #2
2026-10-11 21:26:25 +00:00
kamilkrzywda e70f65f112 Merge pull request 'Reduce turn latency: cap recent events (10→5) + concise-reasoning constraint (v0.9.0)' (#23) from feat/turn-latency-hardening into master
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2026-10-11 23:03:53 +02:00
kamilkrzywda e38cc5933f Reduce turn latency: cap recent events (10→5) + concise-reasoning constraint (v0.9.0)
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Fixes #22
2026-10-11 20:59:18 +00:00
kamilkrzywda 858b901b8d Merge pull request 'v0.8.0 — remove a saved game & redirect on missing/deleted game (#20)' (#21) from feat/delete-saved-games into master
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2026-10-11 22:35:58 +02:00
kamilkrzywda 17d6cecab9 feat: remove a saved game & redirect on missing/deleted game (#20)
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- DELETE /api/games/:id route + Db.delete() (404 when absent)
- PresetPicker: per-saved-game trash button + confirm dialog (Cancel/Delete)
- App: runDeleteGame; useSse onError -> goHome on 'deleted'/'not found'
  (a deleted/missing game now returns the live tab and any deep link home)
- DeleteGameResponse in shared/protocol.ts; api.deleteGame()
- unit test (Db.delete) + 2 e2e tests (home-screen delete; in-flight delete
  returns the active tab home and a fresh deep link lands on home)
- version 0.7.0 -> 0.8.0 + changelog

Fixes #20
2026-10-11 20:32:55 +00:00
kamilkrzywda f05ddb304d Merge pull request 'v0.7.0 — map click → dossier target; fix "no owner"' (#19) from map-click-dossier into master
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2026-10-11 21:30:38 +02:00
kamilkrzywda eadae4dc4f map: click a region to switch the dossier to its owner; fix "no owner" (v0.7.0)
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2026-10-11 19:22:33 +00:00
kamilkrzywda 67f48fb99c Merge pull request 'v0.6.0 — advisor "thinking" indicator' (#18) from advisor-thinking into master
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2026-10-11 20:38:56 +02:00
kamilkrzywda c19db2c118 advisor: show a "thinking" indicator during advisor fetches (v0.6.0)
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2026-10-11 18:32:09 +00:00
kamilkrzywda 977bf584ce Merge pull request 'v0.5.0 — HUD chrome: remove Map window, pin top bar, dockable left/right panels' (#17) from hud-dock into master
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2026-10-11 19:49:20 +02:00
kamilkrzywda 6b167cb435 hud chrome: remove Map window, pin top bar, dockable left/right panels (v0.5.0)
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2026-10-11 17:40:01 +00:00
kamilkrzywda 762c120bbd Merge pull request 'v0.4.0 — fix queue-add race + per-item remove button' (#14) from queue-add-fix into master
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2026-10-11 18:18:47 +02:00
kamilkrzywda cfcdd8b8a8 docs: clarify Gitea issue convention (reference filed issues; no redundant changelog issue)
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2026-10-11 16:15:00 +00:00
kamilkrzywda ef27b59762 0.4.0 — fix queue-add race + per-item remove button (#10, #11) 2026-10-11 16:09:29 +00:00
kamilkrzywda 3287bcaca4 Merge pull request 'v0.3.0 — URL deep-linking (game id in URL, multi-tab)' (#13) from url-deep-link into master
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2026-10-11 17:39:18 +02:00
kamilkrzywda f622cb676a url deep-link: game id in #/game/<id>, multi-tab + bad-link fallback (v0.3.0)
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2026-10-11 15:32:51 +00:00
kamilkrzywda 502fbd4874 Merge pull request 'v0.2.0 — LLM reliability + batched-round turn model' (#9) from reliability-batched-round into master
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2026-10-11 16:46:01 +02:00
kamilkrzywda 9bce14254d batched round: queue actions/diplomacy, jump forward commits one turn (v0.2.0)
CI / build + unit + e2e (pull_request) Successful in 1m51s
2026-10-11 14:36:35 +00:00
kamilkrzywda 3297658c81 reliability: low reasoning_effort, retry-with-backoff, LLM call logging
- send top-level reasoning_effort: "low" (LLM_REASONING_EFFORT) to cut the qwen3.8-27b CoT ~85%, so content is no longer truncated to null -> the ~50% 502s
- new env: LLM_MAX_TOKENS (default 4000, per-call opts.maxTokens still overrides), LLM_REASONING_EFFORT (default "low", off/empty omits the field)
- chat() retries up to 3 attempts: timeout/abort, 5xx, network errors (ECONNRESET/ECONNREFUSED/socket closed), null/empty content; backoff 2s->3s (2000*1.5^(n-1), +/-20% jitter); 4xx throws immediately
- logging: '[llm] chat ok' {ms, finishReason} on success; '[llm] chat failed' {attempts, lastStatus, message, totalMs} on final failure
- tests: 12 in llm.test.ts (retry success/failure, no 4xx retry, null-content retry, logging spies); AGENTS.md env table + gotchas updated
2026-10-11 13:46:18 +00:00
kamilkrzywda 612de2fc40 Merge pull request 'Add Gitea Actions CI + switch to PR-based workflow' (#1) from ci-pipeline into master
CI / build + unit + e2e (push) Successful in 1m59s
2026-10-11 10:28:16 +02:00
48 changed files with 26668 additions and 651 deletions
+246 -39
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@@ -6,19 +6,20 @@ Guidance for AI agents (and humans) working in this repo.
A self-contained, AI-driven **alternate-history simulator** in the style of _Pax Historia_:
the LLM is the world engine. You pick a scenario (one of 5 seed presets) and a nation to lead,
then take actions / send diplomatic messages / ask an advisor; each move is sent to the model,
which returns a structured `TurnResult` (events + stat/relation/territory deltas) that the engine
validates, clamps, and applies to the world state. A MapLibre choropleth renders territorial
ownership; the whole thing persists to SQLite and streams over SSE on a single port.
then queue actions and diplomatic messages into a pending round; a single "Jump forward" sends
the whole batch to the model, which returns a structured `TurnResult` (events + stat/relation/territory
deltas) that the engine validates, clamps, and applies to the world state. A MapLibre choropleth
renders territorial ownership; the whole thing persists to SQLite and streams over SSE on a single port.
## Change process (mandatory)
1. **Small, incremental, well-tested changes** — work is done one change at a time, in smaller parts; each part is tested before moving on. Connected tasks that touch the same area of code MAY be done together on one branch/PR with a single version bump (e.g. two tweaks to the same panel).
2. **Feature branch + PR** — every change lands on a feature branch off `master` (no direct pushes to `master`). Open a pull request against `master` on Gitea (`https://git.kkhost.pl`, repo `OpenCode/History`).
3. **Changelog entry** — every change is listed in `CHANGELOG.md` with a version, date and time (format: `## v<version> — YYYY-MM-DD HH:MM`, then bullet points of what changed).
4. **Version bump** — the version is updated in `package.json`.
5. **CI must pass** — branch protection on `master` requires the CI status check to be green before merge. Merge via auto-merge (`POST /repos/OpenCode/History/pulls/{n}/merge` with body `{"do":"merge","merge_style":"merge","merge_when_checks_succeed":true}`) so the PR merges by itself once CI is green. **CI never deploys to production.**
6. **Tag + manual deploy after merge** — once merged, tag the version on `master` (e.g. `v0.1.0`). Production (`https://history.dev.kkhost.pl`) is updated manually afterwards on the host: `docker compose up -d --build`, then verify the site.
2. **Gitea issue + `Fixes #N` in the PR** — the PR references (and, via `Fixes #N`, closes) the Gitea issue(s) the work addresses (`https://git.kkhost.pl`, repo `OpenCode/History`). If the user has already filed issue(s) for the change, reference those directly in the PR — no separate changelog issue is created; only file a fresh issue when the work has none pre-filed (e.g. a fix originating purely from chat feedback). `CHANGELOG.md` is always the durable changelog of what shipped.
3. **Feature branch + PR** — every change lands on a feature branch off `master` (no direct pushes to `master`). Open a pull request against `master` on Gitea; reference the issue in the PR description.
4. **Changelog entry** — every change is listed in `CHANGELOG.md` with a version, date and time (format: `## v<version> — YYYY-MM-DD HH:MM`, then bullet points of what changed).
5. **Version bump** — the version is updated in `package.json`.
6. **CI must pass** — branch protection on `master` requires the CI status check to be green before merge. Merge via auto-merge (`POST /repos/OpenCode/History/pulls/{n}/merge` with body `{"do":"merge","merge_style":"merge","merge_when_checks_succeed":true}`) so the PR merges by itself once CI is green. **CI never deploys to production.**
7. **Tag + manual deploy after merge** — once merged, tag the version on `master` (e.g. `v0.2.0`). Production (`https://history.dev.kkhost.pl`) is updated manually afterwards on the host: `docker compose up -d --build`, then verify the site.
## Stack
@@ -26,11 +27,24 @@ ownership; the whole thing persists to SQLite and streams over SSE on a single p
- Frontend: React 19 + Vite 6 + Tailwind CSS v4 (`@tailwindcss/vite`, no config file) + shadcn/ui
- Backend: Node 22 + Express — one process serving the built client, `/api` (REST), and `/sse`
- Persistence: `better-sqlite3` (one row per game, full `GameState` as JSON)
- Map: MapLibre GL (`maplibre-gl`) — remote OpenFreeMap `dark` basemap + a country choropleth
from `public/countries.geo.json` (`id` = ISO_A3)
- Map: MapLibre GL (`maplibre-gl`) — remote OpenFreeMap `dark` basemap + a **sub-national**
choropleth from `public/regions.geo.json` (1,800 sub-regions; feature `id` = `<ISO_A3>-<nn>`,
`properties.parent` = the country's ISO_A3). Ownership is at **region-key** granularity
(v0.19, #16 P1): every sub-region is addressed by a stable key from
`public/region-keys.json`, `Nation.territory` holds those keys, and each sub-region is
colored by its own owner. Since v0.21 (#16 P2) the LLM moves *individual* sub-regions
across shared land borders (frontier-biased transfers, verified with the `getNeighbours`
function-calling tool) instead of whole countries. Since v0.25 (#31) the old RU-ARK
mega-region is split into the mainland (`RU-ARK`, key unchanged) plus the New Earth
(`RU-ARK-NE`) and Severnaya Zemlya (`RU-ARK-SZ`) island groups; since v0.26 (#41) the
mainland's 28-part Arctic-coast band is further re-partitioned into Pechora (`RU-PEO`)
and Yamal (`RU-YAM`) (the 5-part lat < 68 core stays `RU-ARK`/`arkhangel-sk-lhbk`).
- The LLM client is a thin OpenAI chat-completions wrapper over native `fetch` with an
**injectable transport** (mirrors `mesh-bot/src/llm`). A deterministic **stub** transport
(`LLM_STUB=1`) is used by all tests/e2e.
**injectable transport** (mirrors `mesh-bot/src/llm`), with two entry points: plain
`chat()` and `chatWithTools()` — a bounded OpenAI function-calling loop (max 6 tool
rounds, then one forced no-tools request) sharing the same retry/backoff/
`reasoning_effort` machinery (see the LLM config note below). A deterministic **stub**
transport (`LLM_STUB=1`) is used by all tests/e2e.
## Layout
@@ -42,26 +56,39 @@ history/
├── eslint.config.js # flat config (ESLint 9)
├── tsconfig.json # strict; aliases @/ → src/, @shared/ → shared/
├── vite.config.ts # dev server + proxy /api,/sse → :4321; @ / @shared aliases
├── vitest.config.ts # unit tests (server/**/*.test.ts)
├── vitest.config.ts # unit tests (server/**/*.test.ts + scripts/**/*.test.ts; 168 tests)
├── playwright.config.ts # deterministic e2e (webServer runs npm run dev, LLM_STUB=1)
├── index.html
├── presets/ # 5 scenario JSON files + index.json (manifest)
├── public/
│ └── countries.geo.json # 177 features, id=ISO_A3 (committed; Vite copies to dist/)
│ ├── countries.geo.json # 177 countries, id=ISO_A3 (input to the region generator)
│ ├── regions.geo.json # 1,800 sub-regions, id=<ISO_A3>-<nn>, parent=ISO_A3 (the choropleth)
│ ├── region-keys.json # feature id -> region key, 1,800 entries (the ownership/LLM address space, #16 P1)
│ └── region-adjacency.json # region key -> bordering region keys, 1,800 entries (the getNeighbours data, #16 P2)
├── scripts/ # the geo/manifest data pipeline — .mjs (turf allowed HERE only;
│ │ # never imported by .ts): generate → coarsen → cleanup → smooth →
│ │ # fill-gaps → split-arkhangel → split-arkhangel-band → build-region-keys
│ │ # → build-region-adjacency
│ └── *.test.ts # turf-free vitest tests pinning the dataset + both manifests
├── shared/ # NO runtime deps — the single source of truth
│ ├── types.ts # domain types (Nation, GameState, Preset, …)
│ └── protocol.ts # LLM TurnResult schema + client↔server messages + pure helpers
│ ├── types.ts # domain types (Nation, GameState, RoundItem, Preset, …)
│ └── protocol.ts # LLM TurnResult schema (incl. `unowned`, v0.22 #16 P3, and
│ # `nationOps`, v0.23 #16 P4a; v0.24 #16 P4b) + AddAction/AddDiplomacy/RemoveQueueItem/
│ # Jump + NationOp confirm/reject request types + pure helpers
├── server/
│ ├── index.ts # Express: /api/*, /sse/:id, static+SPA; reads PORT/LLM_*/DATA_DIR
│ ├── engine.ts # pure: buildPrompt / parse+validate / applyTurnResult / runTurn / advisor
│ ├── llm.ts # LlmClient (injectable transport) + env config
│ ├── stub.ts # deterministic LLM transport (tests/e2e) + ADVISOR_MARKER
│ ├── map.ts # GameState → RegionMap (ISO_A3 → owner + stable color)
│ ├── index.ts # Express: /api/* (health|action|diplomacy|queue/remove|jump|advisor|
│ │ # nation-op/confirm|nation-op/reject|games|map|presets), /sse/:id; reads
│ │ # PORT/LLM_*/DATA_DIR
│ ├── engine.ts # pure: prompts / parse+validate / applyTurnResult (sole-ownership + no-man's-land releases, v0.22 #16 P3) / runTurn (tool path + plain fallback) / getNeighbours tool + executor / playerFrontier / queue ops / advisor / nation-op ops (resolveNationRef / freshNationId / NEW_NATION_STATS / applyNationOp rename+split+merge / confirmNationOp / rejectNationOp, v0.23 #16 P4a; v0.24 #16 P4b)
│ ├── llm.ts # LlmClient: chat() + chatWithTools() (bounded function-calling loop), injectable transport, retry+backoff, logging + env config
│ ├── regions.ts # turf-free region-key data access: load manifest/geo/adjacency (public/ then dist/), country→keys expansion, reference table, neighboursOf/hasAdjacency
│ ├── stub.ts # deterministic LLM transport (tests/e2e): one frontier conquest per turn + ADVISOR_MARKER
│ ├── map.ts # GameState → RegionMap (region key → owner + stable color)
│ ├── presets.ts # load preset JSON files from disk
│ ├── db.ts # SQLite open/save/load
│ └── *.test.ts # unit tests (vitest)
└── src/
├── App.tsx # screen router: home → pick → game; owns game/regions/advisors state
├── App.tsx # screen router (home → pick → game) + manual hash router (#/game/<id>); owns game/regions/advisors/busy
├── main.tsx # React root + ThemeProvider(dark)
├── index.css # Tailwind v4 + dark "command-center" theme
├── lib/
@@ -71,10 +98,12 @@ history/
│ └── utils.ts # cn()
└── components/
├── PresetPicker.tsx / NationSelect.tsx # home + nation pick screens
├── WorldMap.tsx # MapLibre basemap + choropleth + click popup + player highlight
├── WorldMap.tsx # MapLibre basemap + choropleth + click→dossier + hover tooltip + player highlight
├── NationPanel.tsx # a nation's stats/territory/diplomacy dossier
├── ActionPanel.tsx # tabs: Action / Diplomacy / Advisor + "Jump forward"
├── ActionPanel.tsx # tabs: Action / Diplomacy / Advisor + pending-queue list (per-item trash button + confirm dialog) + "Jump forward" + "Nation proposals" trigger (v0.23 #16 P4a)
├── NationOpDialog.tsx # review LLM-proposed nation ops (rename/split/merge) — confirm (editable rename/merge name, split successor radio) or reject (v0.24 #16 P4b)
├── EventFeed.tsx # scrolling event log (newest first)
├── FloatingWindow.tsx # the HUD window primitive — free-floating (draggable, position persisted), or `pinned` (fixed top-center bar), or `dock`ed (full-height left/right column); renders dock controls when `onDockChange` is set
├── StatBar.tsx
└── ui/ # 14 shadcn/ui primitives
```
@@ -86,10 +115,13 @@ history/
| `npm run dev` | Express on :4321 (tsx watch) + Vite on :5173 (proxies `/api`,`/sse`) concurrently |
| `npm run build` | `vite build` (client → `dist/`) then `tsup server/index.ts` → `server/dist/index.js` |
| `npm start` | run the compiled server (`node server/dist/index.js`) on :4321 |
| `npm test` | vitest unit tests in `server/` (19 tests) |
| `npm test` | vitest unit tests (`server/` + `scripts/`; 168 tests) |
| `npm run typecheck` | `tsc --noEmit` (strict) across src/server/shared/e2e/configs |
| `npm run lint` | ESLint flat config |
| `npm run e2e` | Playwright, fully deterministic (`LLM_STUB=1`); **runs in CI on every PR** (see below) |
| `npm run split:regions` | (re)apply the #31 Arkhangel'sk split (`RU-ARK` → mainland + `RU-ARK-NE` + `RU-ARK-SZ`) — idempotent no-op once applied |
| `npm run split:regions:band` | (re)apply the #41 Arctic-coast-band split (`RU-ARK` mainland's 28-part lat ≥ 68 band → `RU-PEO` + `RU-YAM`) — idempotent no-op once applied |
| `npm run build:region-keys` / `build:region-adjacency` | (re)generate the `public/region-keys.json` / `region-adjacency.json` manifests — deterministic + idempotent (byte-identical re-run) |
| `docker compose up -d --build` | prod image on :4321, routed via Traefik at `history.dev.kkhost.pl` |
**Local verification (before every PR):** `npm run typecheck` + `npm run lint` + `npm test` (unit) + `npm run build`. The full **e2e** suite (`npm run e2e`) is verified by **CI on every PR** (the Playwright config boots its own dev webServer with `LLM_STUB=1`) — locally you only need the four checks above; e2e is the CI source of truth.
@@ -97,12 +129,40 @@ history/
## Conventions
- **The server is authoritative.** All world state lives in SQLite (`server/db.ts`). The client
renders state and sends intents (`/api/games/:id/turn|jump|advisor`); it never computes outcomes.
`shared/protocol.ts` is the single source of truth for the LLM `TurnResult` and the
renders state and sends intents (`/api/games/:id/action|diplomacy|jump|advisor`); it never computes
outcomes. `shared/protocol.ts` is the single source of truth for the LLM `TurnResult` and the
client↔server message shapes — change it there first, then update both sides.
- **No hardcoded origins.** The client uses same-origin relative paths (`/api/...`, `/sse/...`).
In dev, Vite proxies them to :4321; in prod/Traefik they're the same origin. So the app works
unchanged behind the proxy — never bake in `http://host:port`.
- **Hash-based routing (client-only).** The active game's id lives in the URL fragment: home is
`#/` (a bare page with no hash is also home) and an active game is `#/game/<id>`. This is a manual
hash sync in `App.tsx` — no react-router, no server route (every non-API GET just serves
`index.html`), so it is Traefik/static-safe. A deep link opens that exact game and two tabs can
run two different games (each has its own React state + `useSse(game.id)`). The URL hash takes
precedence over the localStorage active-game id, which remains the fallback for a bare `/` load;
a bad/missing id clears the hash to `#/` and falls back to home.
- **Batched round model.** Actions and diplomatic messages are queued in `game.pending` via
`POST /action` and `POST /diplomacy` (fast, no LLM call, no turn advance). A single
`POST /jump` ("Jump forward") commits the whole pending batch in one LLM turn: `engine.runTurn`
sends the entire `pending` array to the model, applies the `TurnResult`, clears `pending`, and
advances the turn. An empty round (no items queued) is allowed and lets the world advance on its
own. This design reduces LLM call frequency and makes each call a coherent batch of work.
Queued items can be removed again via `POST /queue/remove` (by index — the client offers a
trash button per row with a confirm dialog); like the adds it never advances the turn.
- **Advisor "thinking" state (separate from the turn `busy`).** The Advisor tab shows a thinking hint
(mirroring the turn's `sim-hint`) and disables its "Ask advisor" button while the advisor LLM call is
in flight, and the top-bar `status-indicator` reads "Advisor thinking…". It is a distinct `advisorBusy`
flag in `App.tsx` and must never gate "Jump forward" or the turn flow.
- **Monotonic `GameState.version` — clients "never go backwards".** Every mutation (queue
add/remove, turn commit) bumps `state.version` in the engine (`queueRoundItem` /
`removeRoundItem` / `applyTurnResult`); it starts at 1 on game creation, is persisted in SQLite,
and legacy games without the field are treated as version 0. ALL state ingestion on the client —
SSE `state`/`turn` events, REST responses (add/remove/jump), and game loads — flows through the
single `applyState` in `App.tsx`: a *different* game id is always adopted, the *same* game only
when the incoming version is not older than the current one (compared inside the functional
`setGame` updater, so it can't act on a stale closure). This is what stops a late-arriving stale
SSE snapshot from clobbering the UI (see Gotchas, #10).
- **Defensive turn handling, never crash.** `engine.runTurn` strips fences, extracts the first
balanced `{...}`, `JSON.parse`s, validates (ignores invalid ops, clamps stats to 0–100), retries
once with a nudge if the result is empty/invalid, and if it's still unusable emits a generic
@@ -110,11 +170,125 @@ history/
(model down) surfaces as an HTTP 502 to the client (shown as a toast).
- **Stable per-nation colors.** `shared.nationColor(id)` hashes a nation id → hue, shared by the
server's `RegionMap` and any client coloring so the choropleth always agrees.
- **Deterministic stub.** `server/stub.ts` answers the model contract deterministically: the player
nation's `military` is set to `(current + 5)` (clamped) each turn, one event is emitted
(action→military, chat→diplomatic, jump→political "The world moves on"), it allies the player with
the first other nation, and the date advances 2 days. Unit + e2e assertions rely on these exact
values, so keep the stub deterministic.
- **Region-level territory (v0.19/v0.21, #16 P1+P2).** Since v0.19 ownership lives at sub-region
granularity: `Nation.territory` holds **region keys** (`<name-slug>-<4char>`, e.g. `moselle-rygy`;
the manifest is `public/region-keys.json`), `server/regions.ts` expands each preset's country list
to all its sub-regions' keys at game creation, and `buildRegionMap` keys the choropleth `RegionMap`
by region key. Since v0.21 transfers are **frontier-biased**: `applyTurnResult` is snapshot-first
and enforces **sole ownership** (a key transfers only when exactly one nation claims it to gain,
it has exactly one current owner, and the owner is not the gainer — a double claim is rejected and
a lone `lose` is a no-op, so a key can never be orphaned or duplicated), and the LLM can call the
`getNeighbours` tool (`GET_NEIGHBOURS_TOOL` + `makeNeighboursExecutor` in `engine.ts`, data from
`public/region-adjacency.json` via `neighboursOf`) to verify land borders before proposing a
transfer; the user payload carries the player's `frontier` (the sorted other-nation keys bordering
the player's territory, via `playerFrontier`). The tool path degrades gracefully: without the
adjacency manifest (or with a client lacking `chatWithTools`), a turn runs the legacy plain
`chat()` path and the tool/frontier simply switch off. Since v0.22 (#16 P3) a key may also end
a turn **unowned** — "no man's land": `TurnResult.unowned` lists keys released this turn;
`applyTurnResult` applies releases FIRST (a key leaves its sole owner — only a key with exactly
one current owner can be released; a never-assigned or corrupt key is a no-op), then claims
against the post-release snapshot, so a `gain` on an ownerless key is a **re-claim** (granted to
the sole gainer and removed from the cumulative `GameState.unowned` list). The user payload
carries the current `GameState.unowned` as `unowned`, and the jump route's `regions` reference
table includes those keys so the model can name them when re-claiming. The map renders a
released key in the distinct visible grey (`NO_MANS_LAND_FILL` in `shared/protocol.ts`, with a
"No man's land" tooltip sub-line) while a preset-unassigned key keeps the faint look ("No owner")
— the distinction is decided by the client from `GameState.unowned` (via `regionFillStyle` /
`unownedTooltipLabel`), never by the `RegionMap`, which only knows "owned" vs "absent". A fresh
game always starts with `unowned: []` (legacy SQLite rows load with it defaulted). Since v0.25
(#31) the 78-part RU-ARK mega-region is split into three features — mainland `RU-ARK` (its key
`arkhangel-sk-lhbk` is **unchanged**, so existing ownership is safe), `RU-ARK-NE` (New Earth /
Franz Josef Land, `new-earth-eikt`) and `RU-ARK-SZ` (Severnaya Zemlya,
`severnaya-zemlya-awqp`) — by the idempotent `scripts/split-arkhangel.mjs` stage (run between
`fill:regions` and `build:region-keys`, no-op once applied); the two island groups get their own
region keys and adjacency entries (New Earth is genuinely isolated → empty adjacency; Severnaya
Zemlya's islet rings touch the coarsened mainland ring, so it records one SZ↔mainland pair).
Since v0.26 (#41) the mainland's 28-part Arctic-coast band (centroid lat ≥ 68) is further
re-partitioned by the idempotent `scripts/split-arkhangel-band.mjs` stage (run between
`split:regions` and `build:region-keys`, no-op once applied) into Pechora (`RU-PEO`,
`pechora-qwhs`, 13 parts) and Yamal (`RU-YAM`, `yamal-gosw`, 15 parts) — a pure re-partition
(no geometry moved → the union is byte-identical) that keeps `RU-ARK`'s id/name/key
`arkhangel-sk-lhbk` stable and inserts the two new features immediately after `RU-ARK-SZ`; the
5-part lat < 68 core stays `RU-ARK` (a single ~305k km² polygon — splitting it needs turf
clipping, not a pure re-partition).
- **Nation ops — “LLM proposes, player confirms” (v0.23, #16 P4a; v0.24, #16 P4b).**
`TurnResult.nationOps` (required in the schema) carries the LLM’s proposed **`NationOp`s** — a
discriminated union of `rename` / `split` / `merge`, all three of which are now applied on confirm
(P4b implemented split/merge). Each op names its target via `nationRef` — the LLM may use a
nation’s **id or name**; `resolveNationRef` resolves id-first, then a case-insensitive
unique-name match, and returns `null` for an unknown or ambiguous ref (such ops are dropped
defensively in `validateNationOps`, never thrown). A turn’s ops are appended to
`GameState.pendingNationOps`, which is **never cleared on a turn commit** — pending proposals
persist across turns until resolved (like the action queue). The player then decides per op via
`POST /api/games/:id/nation-op/confirm` (`{index, edits?{name?, playerPart?}}`) or
`.../nation-op/reject` (`{index}`): `confirmNationOp` applies the op to a clone — **rename** sets
`Nation.name` to the edited value or, failing that, the proposed `to` (id / territory / relations /
`playerNationId` stay valid, so a renamed player is re-named in place); **split** (the parent
must resolve and have ≥2 named parts, else a no-op) partitions the parent’s region-key territory
into new nations in parts order — each new nation gets a fresh id (`freshNationId`: first free of
`n1`, `n2`, …) and the baseline `NEW_NATION_STATS` (not a copy of the parent’s), plus a copy of
the parent’s relations; a key named by several parts goes to the first, and the parent’s
unclaimed keys go to part 0 (in territory order), so sole ownership holds and nothing is
orphaned; if the parent was the player’s nation, `playerNationId` moves to the part chosen by
`edits.playerPart` (clamped into range, default 0), which also receives `edits.name`; **merge**
(every ref must resolve, ≥2 DISTINCT inputs, and the survivor must be one of them, else a
no-op) folds the inputs into the survivor, which keeps its id and its own stats, gains the
union of the inputs’ territories (the survivor’s keys first) and a union of their relations
(the survivor’s own view of a third party wins, else the first input’s), is renamed
`edits.name` → `into` → its own name, while the other inputs are removed and their ids dropped
from every remaining nation’s relations maps; if the player led a removed input,
`playerNationId` moves to the survivor. An op that is invalid at confirm time (an ambiguous ref,
…) is a no-op on the world but is still removed — and `rejectNationOp` just drops it; both
splice by index and bump `version` once (an invalid index → `null` → HTTP 400). The response is
`{ game }` and the server broadcasts a version-bumped SSE `state`, so every tab’s
version-guarded `applyState` stays in sync. The client lists the pending ops in a “Nation
proposals” dialog (in the “Your move” panel): a rename and a merge show an editable name field
(the merge also highlights the survivor among the input chips); a split lists each part (name +
proposed region count) with a successor radio that appears only when the parent is the player’s
own nation (preselected part 0 — the choice is always valid). The system prompt documents all
three op shapes as a proposal queue (at most 1–2 per turn, each narrated in events). The stub
never proposes a nation op (`nationOps: []`), so this path is covered by unit tests only
(`server/engine.test.ts`).
- **Map click → dossier target (owner resolved from the RegionMap, by region key).**
Clicking a sub-region does NOT open a popup — it switches the dossier to that sub-region's
owning nation (`focusNation(ownerId, {name})` in `App.tsx`, which also records which region was
clicked for a small dossier label); the manual "Inspect" selector and a map click both set the
same target and stay in sync (a manual pick clears the label). Ownership is resolved from the
authoritative `RegionMap` (keyed by **region key**) via the feature's stamped
`properties.regionKey`, using the shared `mapFeatureOwner()` helper (`shared/protocol.ts`) —
`WorldMap` stamps each rendered feature with its key from `region-keys.json` when it builds the
choropleth source. It must **never** be resolved from the feature's top-level `id` (MapLibre
repacks it into a numeric index — the "no owner" bug, #6) nor from the raw sub-region `id` (not a
`RegionMap` key). A sub-region whose key has no owner leaves the current dossier target
unchanged — never a broken dossier. The hover path (a non-closeable tooltip showing the region
name + owner chip + key stats) uses the same resolution. `properties.parent` is static
geographic-origin data — never use it for ownership or display.
- **Deterministic stub.** `server/stub.ts` answers the model contract deterministically per
queued round item: each `action` item → one military/success event, each `diplomacy` item → one
diplomatic/partial event, an empty round → one political "The world moves on" event. The player
nation's `military` is set to `(current + 5)` (clamped) once per committed turn (not per item),
the player is allied with the first other nation (by key order in the `nations` record), and the
date advances 2 days. Since v0.21 the stub also makes **one contiguous conquest per turn**: the
player gains `frontier[0]` (the first of the sorted `frontier` list from the prompt payload —
stable) and that region's owner loses it; an empty frontier (no controllable border, e.g. the UK
in `wwii-1939`) transfers nothing. Since v0.22 (#16 P3) the stub **never releases** a region to
no man's land (it always returns `unowned: []` and ignores the payload's `unowned` field) — its
one-conquest behavior is what the e2e assertions rely on, so the release/re-claim path is
covered by unit tests only (`server/engine.test.ts`, `server/map.test.ts`). Since v0.23 (#16 P4a)
the stub also returns `nationOps: []` — it **never proposes** a nation op (rename/split/merge;
still true since P4b implemented split/merge), so the confirm/reject path is covered by unit
tests only, mirroring the P3 approach; all e2e assertions are unaffected. The stub answers plain `content` (never tool calls), so it naturally
bypasses the tool loop in a single round. Unit + e2e assertions rely on these exact values, so
keep the stub deterministic.
- **HUD layout.** The game screen is a full-viewport map (z-0) with `FloatingWindow` overlays. The
top bar is **pinned** — a fixed, non-movable bar centered at the top a few px down (it re-centers
on resize and always floats above the other windows). The **dossier / event-feed / action**
panels are free-floating by default (the same first-run positions as before) but can each be
**docked** into a full-height left or right pane; the choice is persisted in `localStorage`
(`history.floatwin.v1.dock`) and restored on reload, so the default "float" reproduces the
original layout until the user docks something. The **legend** stays a small floating widget (not
dockable). There is **no "Map" window** — the map is zoomed/panned directly (wheel/trackpad +
drag).
- Styling: Tailwind utility classes + shadcn/ui only; dark "command-center" theme (slate bg, amber
primary, cyan accent). No CSS beyond the Tailwind import in `src/index.css`.
@@ -137,19 +311,47 @@ history/
| `LLM_API_BASE` | `https://ai.kkhost.pl/v1` | OpenAI-compatible **vLLM** base URL (no API key required) |
| `LLM_MODEL` | `qwen3.8-27b` | vLLM **reasoning** model — CoT in `reasoning`, final answer in `content` |
| `LLM_TIMEOUT_MS` | `180000` | the 27B reasoning model can be slow |
| `LLM_MAX_TOKENS` | `4000` | max **output** tokens per request; with `reasoning_effort:low` a realistic turn uses ~800–1100, so 4000 is ~4× headroom and stays under the 90s proxy wall |
| `LLM_REASONING_EFFORT` | `low` | sent as top-level `reasoning_effort`; cuts the model's CoT by ~85% (the 502 fix). Set to empty/`off` to not send the field at all |
| `LLM_STUB` | _(unset = live)_ | `1` → deterministic stub transport (no model needed) |
> **Reasoning model:** `qwen3.8-27b` emits its chain-of-thought in the response's `reasoning`
> field and the final JSON answer in `content`. `server/llm.ts` therefore always sends a generous
> `max_tokens` (`DEFAULT_MAX_TOKENS = 4000`) so the model finishes reasoning before writing
> `content` (a too-small budget returns a null `content`), and reads only `content`, ignoring
> `reasoning`. No auth header is sent — the endpoint requires no key.
> field and the final JSON answer in `content`. `server/llm.ts` therefore sends top-level
> `reasoning_effort: "low"` (`LLM_REASONING_EFFORT`) to cut the CoT by ~85% — small enough to
> fit the `max_tokens` budget (`LLM_MAX_TOKENS`, default 4000) — and reads only `content`,
> ignoring `reasoning`. `chat()` retries transient failures (timeout/abort, 5xx, network
> errors, null/empty `content`) up to 3 attempts with 2s→3s backoff and logs every call
> (`[llm] chat ok` / `[llm] chat failed`). No auth header is sent — the endpoint requires no key.
> The same machinery backs `chatWithTools()` (the function-calling loop used by turns when the
> region-adjacency manifest is loaded): a `finish_reason: "tool_calls"` response is a *successful*
> round (never a truncation error), each requested tool call is run through the injected executor,
> the assistant tool-call message plus one `tool` result message per call are appended to the
> history, and the loop re-sends until a final `content` — max `DEFAULT_MAX_TOOL_ROUNDS = 6`
> tool rounds, after which one last *no-tools* request forces the answer.
| `PORT` | `4321` | single server port |
| `DATA_DIR` | `./data` | where `history.db` lives |
| `CLIENT_DIST` | `./dist` | built client to serve (auto-found) |
## Gotchas
- **Stale SSE snapshots can arrive *after* a fresher REST response — the version guard is what
keeps the UI honest (#10).** The SSE `state` event sent on connect/resync is a snapshot taken at
the moment the request is handled, and the SSE stream and the REST responses ride different
connections (Vite proxy in dev, Traefik in prod) with no delivery-order guarantee. A snapshot
taken just before a mutation is saved (e.g. the on-connect resync racing a quick "Add action")
can reach the browser *after* that mutation's REST response. Pre-v0.4.0 the client applied any
incoming state unconditionally, so a just-queued item could vanish ("add one: nothing happened,
add another: both appears" — issue #10). Now every state carries a monotonic `version` and
`App.tsx`'s `applyState` drops same-game states whose version is older than the current one.
Don't add unguarded `setGame` calls or remove the version comparison.
- **502s were the reasoning model exhausting its output budget.** The original client sent only
`max_tokens: 4000`; `qwen3.8-27b`'s chain-of-thought alone often exceeded 4000 tokens, so
`content` came back `null`, which the client treated as fatal → HTTP 502 (~half of turns),
with no retry and no logging. Fixed by sending `reasoning_effort: "low"` (cuts the CoT ~85%),
retrying transient failures (timeout/abort, 5xx, network errors, null/empty `content`) up to
3 attempts with 2s→3s backoff, and logging every LLM call. A realistic turn now takes
~11–16s; the effective ceiling is the upstream OpenResty ~90s timeout, **not** our 180s
`LLM_TIMEOUT_MS`.
- **Live LLM is a runtime dependency.** The live model is `qwen3.8-27b` on
`https://ai.kkhost.pl/v1` (a vLLM **reasoning** model, no API key). If that endpoint is down,
turns return 502 (and the advisor degrades to a canned list). Set `LLM_STUB=1` for a fully
@@ -165,5 +367,10 @@ history/
caught.
- **`better-sqlite3`** is the only native module; the Docker build relies on its prebuilt binary
(works on `node:22-slim`/glibc). It's the sole `--external` in the tsup server bundle.
- The `dist/` client is committed to the build output only; `public/countries.geo.json` is copied
into `dist/` by Vite at build time, so the prod image serves it from `dist/` (no separate copy).
- The `dist/` client is committed to the build output only; the `public/` data files
(`regions.geo.json` — the choropleth — `region-keys.json` + `region-adjacency.json` — the
ownership/adjacency manifests — and `countries.geo.json`) are copied into `dist/` by Vite at
build time, so the prod image serves them from `dist/` (no separate copy). The server's region
loader (`server/regions.ts`) probes `public/` then `dist/` for the manifest pair, because the
Docker image keeps only `dist/` (the v0.20 fix — before it, region-level ownership silently
never activated in prod).
+198
View File
@@ -2,6 +2,204 @@
All notable changes to **History** are listed here, newest first.
## v0.26.0 — 2026-10-14 19:24
- **#41: the `RU-ARK` mainland's Arctic-coast band is re-coarsened into two new regions** — a pure re-partition of the existing polygon parts: no new geometry, no coordinate change (the feature union stays byte-identical). After #31 the mainland `RU-ARK` was a 33-part MultiPolygon; its 28-part band (parts whose centroid lat ≥ 68 — the Arctic-coast strip) is now split into:
- `RU-PEO` — Pechora (13 parts, ~37,678 km²) → new region key `pechora-qwhs`. The southwestern band (around the Pechora delta / Nenets border).
- `RU-YAM` — Yamal (15 parts, ~51,722 km²) → new region key `yamal-gosw`. The northeastern band (Yamal peninsula).
- The 5 remaining lat < 68 parts (the ~305,229 km² inland core) **stay `RU-ARK` and keep its id, name, and region key `arkhangel-sk-lhbk`** — ownership-safe, mirroring the #31 precedent. Splitting that core further requires geometry clipping (a turf-op), not a pure re-partition, and is left as a follow-up issue.
- **New pipeline stage** `scripts/split-arkhangel-band.mjs` (`npm run split:regions:band`), run between `split:regions` and `build:region-keys`: deterministic and **idempotent** (a second run is a no-op that writes nothing). It asserts the mainland is a 33-part MultiPolygon, selects the band as the 28 parts with centroid lat ≥ 68 (exactly 28, or it fails loudly), picks the two largest-area band parts as Voronoi anchors (the smaller-longitude one, `idx 1`, anchors the Pechora side), and assigns each band part to the nearer anchor by km-weighted centroid distance `hypot(Δlon·111.32·cos(midLat), Δlat·110.574)` (ties go west). The resulting partition is exactly PEO={1,4,5,9,11,12,13,14,16,17,18,20,22}, YAM={2,6,15,19,21,23,24,25,26,27,28,29,30,31,32}, core={0,3,7,8,10}. The two new features are inserted **immediately after `RU-ARK-SZ`** (stable file order: `RU-ARK` | `RU-ARK-NE` | `RU-ARK-SZ` | `RU-PEO` | `RU-YAM` | `RU-AST` | …).
- **Manifests regenerated** with the real scripts and remain deterministic/idempotent (byte-identical re-run): `public/region-keys.json` and `public/region-adjacency.json` are now **1,800 entries each** (was 1,798); adjacency pairs 4,471 → 4,473. The new pairs are `pechora-qwhs ↔ yamal-gosw`, `pechora-qwhs ↔ nenets-qyga`, and `yamal-gosw ↔ severnaya-zemlya-awqp`, while the mainland `arkhangel-sk-lhbk` **loses** its `severnaya-zemlya-awqp` pair (the islets now touch the Yamal band, not the inland core) and keeps its six real neighbours (`karelia-ohem`, `kirov-gfvm`, `komi-eoeh`, `murmansk-etas`, `nenets-qyga`, `vologda-ynvr`). `new-earth-eikt` stays isolated (empty adjacency).
- **Fixed-point dataset unchanged except feature count** (1,798 → 1,800): the part/ring/vertex totals (11,794 / 11,795 / 164,801) and the single hole (KZ-KZY) are identical before and after — only the feature grouping changes. The RU-ARK family total stays 78 parts (mainland 5 / NE 42 / SZ 3 / PEO 13 / YAM 15).
- **Tests (168, count unchanged — existing cases updated, none added).** `scripts/regions.test.ts` (dataset is now 1,800 features; the Arkhangel feature-pin test now covers all five family members), `scripts/region-keys.test.ts` (1,800 keys; pins the unchanged `arkhangel-sk-lhbk` plus the two new keys), `scripts/region-adjacency.test.ts` (1,800 entries; pins the new PEO/YAM/SZ adjacency and the mainland's loss of the SZ pair), `server/regions.test.ts` (1,800; the RUS country expansion is now **84** sub-regions including all five keys — was 82 after #31). No e2e assertion references the region counts, so the CI e2e suite is unaffected.
- **LLM/engine/stub unchanged.** At game creation RUS simply auto-owns the two extra band regions (82 → 84 sub-regions); the LLM's reference table and the player's frontier now include `pechora-qwhs` and `yamal-gosw`.
- Deployed to `https://history.dev.kkhost.pl` with the authorized **clean data wipe** (`docker compose down -v` → `up -d --build`; the alpha `history-data` volume was destroyed, resetting all saved games).
## v0.25.0 — 2026-10-14 17:53
- **#31: the `RU-ARK` mega-region is split into a mainland region plus two island groups** — a pure re-grouping of the existing polygon parts: no new geometry, no coordinate changes. The old single feature (Arkhangel'sk Oblast + the Arctic archipelagos, 78 parts, ~410,187 km²) becomes three features inserted immediately after `RU-ARK` (stable file order: `RU-ARK` | `RU-ARK-NE` | `RU-ARK-SZ` | `RU-AST`):
- `RU-ARK` — the mainland (33 parts, ~393,256 km²); it **keeps its existing id and region key `arkhangel-sk-lhbk`**, so existing `Nation.territory` lists and SQLite ownership are untouched (ownership-safe).
- `RU-ARK-NE` — New Earth / Franz Josef Land (42 parts, ~15,721 km²) → new region key `new-earth-eikt`. Genuinely isolated (≥100 km from any land), so its adjacency list is **empty**.
- `RU-ARK-SZ` — Severnaya Zemlya (3 parts, ~1,210 km²) → new region key `severnaya-zemlya-awqp`. Its islet rings share boundary vertices with the coarsened mainland ring (a contact that pre-existed inside the single pre-split feature — no coordinate change), so it records **one** adjacency pair (SZ ↔ `arkhangel-sk-lhbk`). This deviates from the original "both islands isolated" expectation and is recorded as-is by the manifest's "shares at least one point" definition.
- **New pipeline stage** `scripts/split-arkhangel.mjs` (`npm run split:regions`), run between `fill:regions` and `build:region-keys`: deterministic and **idempotent** (a second run is a no-op that writes nothing). It classifies each part by centroid (turf — allowed in `.mjs` only): main = lat < 76 (plus any 76–79.5° band parts west of 55°E — none exist), Severnaya Zemlya = 76 ≤ lat < 79.5 AND lon ≥ 55, New Earth = lat ≥ 79.5. It fails loudly on a mis-split, a missing feature, or a non-MultiPolygon geometry.
- **Manifests regenerated** with the real scripts and remain deterministic/idempotent (byte-identical re-run): `public/region-keys.json` and `public/region-adjacency.json` are now **1,798 entries each** (was 1,796); adjacency pairs 4,470 → 4,471 (the one new pair is the SZ ↔ mainland contact; the mainland keeps its 6 real neighbours).
- **Fixed-point dataset unchanged except feature count** (1,796 → 1,798): the part/ring/vertex totals (11,794 / 11,795 / 164,801) and the single hole (KZ-KZY) are identical before and after the split.
- **Tests (164 → 168).** `scripts/regions.test.ts` (dataset is now 1,798 features; a new test pins the three Arkhangel features and their part counts), `scripts/region-keys.test.ts` (1,798 keys; a new test pins the unchanged main key plus the two new keys), `scripts/region-adjacency.test.ts` (1,798 entries; a new island-adjacency test: New Earth empty, Severnaya Zemlya = [mainland], mainland's neighbour list extended by exactly the SZ pair), `server/regions.test.ts` (1,798; the RUS country expansion is now **82** sub-regions including all three keys — was 80). No e2e assertion references the old counts, so the CI e2e suite is unaffected.
- **LLM/engine/stub unchanged.** At game creation RUS simply auto-owns the two extra island regions (80 → 82 sub-regions).
- Deployed to `https://history.dev.kkhost.pl` with the authorized **clean data wipe** (`docker compose down -v` → `up -d --build`; the alpha `history-data` volume was destroyed, resetting all saved games).
## v0.24.0 — 2026-10-14 13:41
- **Part 4b of #16: nation splits and merges — "LLM proposes, player confirms" is now complete.** P4a let the LLM propose a *rename* (a safe, single-field change). Now the same confirm/reject flow actually applies the two destructive ops: a **split** (one nation dissolves into several) and a **merge** (several nations fold into one). This is the last piece of #16 — all three `NationOp` kinds are now applied on player confirm.
- **Split (`server/engine.ts`).** `applyNationOp` now handles `kind: "split"`: it resolves the parent `nationRef` and requires **≥2** named parts (fewer → a safe no-op, the op is still resolved and removed). It partitions the parent's **region-key** territory across the parts **in order** — each part gets the keys of its `territory` that the parent actually owns and that no earlier part claimed (the **first part to name a key wins**, so a key is never held twice); any of the parent's keys no part claimed go to **part 0** (in the parent's territory order), so nothing is orphaned. Each new nation gets a **fresh id** (`freshNationId`: first free of `n1`, `n2`, …, tracked in a running `taken` set so ids never collide within the op), the baseline `NEW_NATION_STATS` (a neutral 50/50/50/50 profile — *not* a copy of the parent's, since a small rump state is not the parent's power), a copy of the parent's relations, and the parent's `type`; the parent is then removed and its id dropped from every other nation's relations map (`dropRelationsTo`). If the **parent was the player's nation**, `playerNationId` moves to the chosen part (`edits.playerPart`, clamped into range, default 0) — that same part also receives an `edits.name` override.
- **Merge (`server/engine.ts`).** `kind: "merge"`: every input ref and the survivor ref must resolve, at least **two distinct** inputs are required, and the **survivor must be one of the inputs** — any failure is a safe no-op. The survivor keeps its **id** and its **own stats**; it gains the **union of all inputs' territories** (the survivor's keys first, then each other input's unclaimed keys in its own order) and a **union of the inputs' relations** (the survivor's own view of a third party wins, else the first input's); it is renamed to `edits.name` → `into` → its own name (in that precedence). The other inputs are removed and their ids dropped from every remaining nation's relations maps; if the **player led a removed input**, `playerNationId` moves to the survivor.
- **Confirm contract extended (`shared/protocol.ts`).** `ConfirmNationOpRequest.edits` is now `{ name?: string; playerPart?: number }` — `name` overrides a rename's target or a merge's merged name; `playerPart` picks which new part the player's nation becomes in a split (default 0). The `SplitOp` / `MergeOp` / `NationOp` doc comments and the `TurnResult.nationOps` doc now describe the *applied* semantics (no longer "a no-op until P4b").
- **Prompt (`server/engine.ts`).** The system prompt's JSON contract now shows all three `nationOps` shapes (rename / split / merge), and the HARD CONSTRAINTS gain one line per op explaining when to use it and the "≥2 parts" / "survivor must be an input" rules — so the model knows what it may propose and that each is a player-confirmed PROPOSAL.
- **Client (`src/components/NationOpDialog.tsx`).** The dialog now renders all three kinds with a Confirm button (no more "dismiss-only" split/merge rows): a **split** lists each part (name + the number of regions it was assigned) and, when the split's parent is the **player's own nation**, shows a **radio group** to pick which new part the player leads (preselected 0, so the choice is always valid); a **merge** shows the input nations as chips (the **survivor** highlighted) and an **editable name** for the merged state (defaulting to `into`). Rename keeps its editable-name behavior. The new `onConfirm(index, edits?)` signature threads `playerPart` through `ActionPanel` and `App.tsx` (`runConfirmNationOp`) to the API helper.
- **Defensive invariants.** All ops are **pure and never throw**: an unresolvable or ambiguous ref, too few parts, or a survivor that isn't an input makes the op a no-op on the world (the proposal is still resolved and removed on confirm, mirroring P4a's ambiguous-ref behavior). **Sole ownership** is preserved by construction (a key lands in at most one new part / one survivor), and `playerNationId` is always re-pointed to a still-existing nation. The **stub is unchanged** — it still never proposes a nation op (`nationOps: []`) — so, like P4a/P4b before it, the new paths are covered by **unit tests only** and the e2e suite (CI, `LLM_STUB=1`) is unaffected.
- **Tests (`server/engine.test.ts`).** New `freshNationId`, `applyNationOp (split)`, and `applyNationOp (merge)` suites: the partition (first-wins, leftovers-to-part-0, sole ownership, fresh ids/stats/relations, parent removed, relations cleanup, player-pointer move, clamped `playerPart`, `edits.name` on the chosen part), the merge (union territory, survivor stats, relations union with survivor-wins, removed ids dropped from everyone else, into-name, player-pointer move, and the four no-op guards), plus an updated prompt-contract test asserting all three op shapes. The old "split/merge is a no-op" P4a test is retargeted to a 1-part split. The unit suite grows **151 → 164**.
- **Verification.** Typecheck, lint, **164 unit tests**, and the production build all pass. The e2e suite (CI, `LLM_STUB=1`) carries no nation-op assertions, so it stays green with the unchanged stub.
- **Deploy:** manual `docker compose up -d --build` on the host (no `down -v`).
- Part of #16 — major nation changes (P4b, the final part of the epic). #16 was already closed (2026-10-12, after P3 shipped); the PR references it for traceability the same way P4a's PR #38 did ("Part of #16" / "Related: #16") — no auto-close.
## v0.23.0 — 2026-10-14 12:58
- **Part 4a of #16: nation renames — "LLM proposes, player confirms."** The LLM can now propose that a nation be renamed during a turn. Unlike stat/relation/territory changes (applied automatically), a rename is stored as a **pending proposal** (`GameState.pendingNationOps`) and only takes effect when the player **confirms** it (optionally editing the new name) or is dropped on **reject**. This is the first of the "major nation changes" the LLM may propose — the `NationOp` contract is stable now; **split** and **merge** are declared in the same union but are *accepted-and-stored, not applied* until P4b.
- **New `NationOp` union (`shared/protocol.ts`).** `rename` / `split` / `merge`, discriminated by `kind`. Each names its target via a `nationRef` the LLM may give as either a nation **id** or **name**. `TurnResult.nationOps` is a **required** `NationOp[]` (the model's proposals this turn); the confirm/reject request types (`NationOpConfirmRequest` `{index, edits?{name?}}`, `NationOpRejectRequest` `{index}`, response `{game}`) live here too.
- **`GameState.pendingNationOps` (`shared/types.ts`, type-only import of `NationOp`)** — the proposals awaiting the player's decision. A turn **appends** to it (never clears it on commit), so a proposal persists across turns until confirmed or rejected. Legacy SQLite rows and new games default it to `[]` (`server/db.ts`).
- **Engine (`server/engine.ts`), all pure.** `resolveNationRef` resolves a `nationRef` id-first, then a case-insensitive unique-name match (returns `null` for unknown/ambiguous — never throws). `validateNationOps` drops invalid ops defensively. `applyTurnResult` keeps existing pending ops and appends the turn's valid ones (a rename-only turn is `isMeaningful`, so it survives the retry/nudge path). `applyNationOp` mutates a clone (rename → `Nation.name` = edited value or the proposed `to`; split/merge are no-ops for now). `confirmNationOp`/`rejectNationOp` splice by index and bump `version` once (invalid index → `null`). The system prompt (both tool-mode and plain-mode) gains the `nationOps` JSON field and the rename-proposal rule.
- **Routes + client.** `POST /api/games/:id/nation-op/confirm` and `.../reject` (404 unknown game, 400 bad index), each returning `{ game }` and broadcasting a version-bumped SSE `state` — mirroring the existing queue add/remove routes. The "Your move" panel shows a "Nation proposals (N)" trigger that opens a dialog listing each pending op; a rename has an editable name field plus **Confirm**/**Reject**, and split/merge offer **Dismiss** (they aren't applied yet).
- **Stub + tests.** The deterministic stub **never** proposes a nation op (`nationOps: []`), so this path is covered by **unit tests only** (mirroring the P3 no-man's-land approach) — `server/engine.test.ts` gains suites for `resolveNationRef`, `validateNationOps`, `applyNationOp`/confirm/reject (incl. an invalid-index 400 and the version-bump), and the prompt contract. The unit suite grows **127 → 151**; the e2e suite is unaffected.
- **Verification.** Typecheck, lint, **151 unit tests**, and the production build all pass. The e2e suite (CI, `LLM_STUB=1`) has no nation-op assertions, so it stays green with the unchanged stub.
- **Deploy:** manual `docker compose up -d --build` on the host (no `down -v`).
- Part of #16 — major nation changes (P4a); #16 stays open (P4b: split/merge).
## v0.22.0 — 2026-10-14 12:02
- **Part 3 of #16: no man's land — a region can be left unowned mid-game and re-claimed later.** After a war or cataclysm the LLM can leave a region without an owner: it lists the key in the new `TurnResult.unowned` field (and narrates the cause in `events`); the engine removes the key from its sole owner, and the region ends the turn ownerless. A later ordinary `gain` on that key is a **re-claim** — the key is granted to the (sole) gainer and removed from the no-man's-land list. A fresh game always starts fully owned (no man's land can only arise mid-game).
- **Engine (`server/engine.ts`).** `applyTurnResult` applies **releases first**: a key is released only when it has exactly one current owner (0 owners — a preset never assigned it — is a no-op, so no man's land can never be fabricated from an ordinary unowned region; 2+ owners — corruption — is a no-op; already-unowned is a no-op). Claims are then resolved against the post-release ownership snapshot: sole gainer + sole owner ≠ gainer = a transfer (the v0.21 rules, unchanged); sole gainer + no owner = a re-claim; a double claim is still rejected. Invariants after every turn: no key sits in two or more territories, a released key sits in none, and `GameState.unowned` holds exactly the keys released mid-game. A lone release counts as `isMeaningful` (it survives the retry/nudge path instead of being replaced by the generic "unclear" result). The system prompt gains the JSON field, the no-man's-land rule (in both tool-mode and plain-mode), and the hard constraint that `unowned` may contain only region keys a nation currently owns. The user payload always carries the current `GameState.unowned` as `unowned` (even when empty), and the jump route's `regions` reference table now includes the released keys so the model can name them when re-claiming.
- **New required `GameState.unowned` field** (`shared/types.ts`): the cumulative list of keys released mid-game. A no-man's-land region is **distinct from a preset-unassigned region** — the presets assign only ~25–30% of the 1,796 sub-regions (e.g. `wwii-1939` starts with 411 owned / 1,385 unowned), so ~1,300 ownerless regions exist at init; those keep the existing faint look, and only `GameState.unowned` keys get the distinct one. Legacy SQLite rows saved before v0.22 load with the field defaulted to `[]` (`server/db.ts`), and game creation sets it to `[]`.
- **Map presentation (a new contract in `shared/protocol.ts`).** `regionFillStyle(owner, isNoMansLand)` + `unownedTooltipLabel` decide the look: an owned region is unchanged (nation color + `OWNED_STROKE`); a released region gets the distinct visible grey `NO_MANS_LAND_FILL = '#3f3f46'` (hue-less by construction, so it can never collide with a nation's `hsl(h 58% 46%)` color) with a brighter border (`NO_MANS_LAND_STROKE`) and the tooltip sub-line "No man's land"; every other ownerless region keeps the faint `rgba(148,163,184,0.05)` fill and "No owner". The client (`WorldMap`, via a new `unowned` prop from `App.tsx`) is the sole consumer of the distinction — the `RegionMap` simply has no entry for an unowned key (`buildRegionMap` is unchanged). Clicking a no-man's-land region does not change the dossier (there is no owner to focus), and a release/re-claim flashes like any other ownership change.
- **Stub + tests.** The deterministic stub is deliberately **unchanged** — it never releases a region (it always returns `unowned: []` and ignores the payload's `unowned` field), because its one-conquest behavior is what the e2e assertions rely on; the release/re-claim path is therefore covered by **unit tests only** (a new `applyTurnResult (no man's land)` suite: release, re-claim, release+claim of the same key, a double claim on a released key, the four no-op release cases, a legacy state without the field, and a `runTurn` end-to-end test with a narrated release; new `buildUserPrompt`/`buildSystemPrompt` contract tests; a presentation-contract suite in `server/map.test.ts`; a legacy-row normalization test in `server/db.test.ts`). The unit suite grows **105 → 127**.
- **No data-format wipe.** The `GameState` shape only gains a field that legacy rows load with, so existing saves remain compatible: the deploy is a plain `up -d --build` (no `down -v`).
- **Verification.** Typecheck, lint, **127 unit tests**, and the production build all pass. The e2e suite (CI, `LLM_STUB=1`) carries no map-color/no-man's-land assertions, so it stays green with the unchanged stub.
- **Deploy:** manual `docker compose up -d --build` on the host (no `down -v`).
- Part of #16 — no man's land (P3); #16 stays open.
## v0.21.0 — 2026-10-14 10:37
- **Part 2 of #16: territory now moves region-by-region along real land borders, and the LLM can verify borders with a live tool.** v0.19 made ownership region-keyed, but the model's `territoryChanges` were still applied wholesale — any key could jump to any nation, effectively moving whole countries. Now:
- **Region-adjacency manifest (Stage 1).** `scripts/build-region-adjacency.mjs` (`npm run build:region-adjacency`) computes which of the 1,796 sub-regions share a land border: per candidate pair, a cheap bbox-proximity prefilter (0.05° gap reject) then a `@turf/boolean-intersects` arbiter. The output `public/region-adjacency.json` is symmetric and deduped — **1,796 entries, 4,470 border pairs (8,940 directed), max degree 19; 1,727 regions have ≥1 neighbour, 69 don't** — and is deterministic/idempotent (sha256 `e9f1d475…`; re-running is byte-identical). Vite copies it into `dist/` for prod; `server/regions.ts` loads it (turf-free — plain `JSON.parse`, no `@turf` import in any `.ts`) and degrades gracefully when it is missing.
- **`getNeighbours` LLM tool (Stage 2).** `server/llm.ts` gains `LlmClient.chatWithTools` — a bounded OpenAI function-calling loop: on a `finish_reason: "tool_calls"` response the client runs the injected executor for every call, appends the assistant tool-call message plus one `tool` result message per call, and re-sends until a final `content` (max **6** tool rounds, then one last *no-tools* request forces the answer). It shares the retry/backoff/`reasoning_effort: "low"` machinery with `chat()`; a tool-call round is a success (never treated as truncation); malformed tool arguments become an `{"error":"invalid tool arguments…"}` tool message, so a bad model reply can never throw. `tools` is included in the request body only when non-empty, so plain `chat()` bodies (and their tests) are unchanged.
- **Engine wiring.** `runTurn` takes an optional `getNeighbours` resolver — the server's jump route passes one only when the manifest loaded (`hasAdjacency()`). With both the resolver and a `chatWithTools`-capable client, the turn runs the tool path: the system prompt gains the contiguity rules (a nation may only GAIN a key that borders its own territory; every key has exactly one owner) and advertises the tool; the user payload gains a `frontier` field — the player's `playerFrontier`, the sorted/deduped set of *other-nation* keys bordering the player's territory (the natural targets of a player-led conquest). Without the manifest, or with a minimal chat-only client, the turn falls back to the legacy plain `chat()` path — everything keeps working, the tool/frontier simply switch off.
- **Sole-ownership enforcement.** `applyTurnResult` now applies territory snapshot-first: before mutating anything it computes each key's current owner, and a key transfers only when (a) exactly one nation claims to gain it (a double claim is rejected — the key stays), (b) it has exactly one current owner (pre-existing double ownership is never touched), and (c) the owner is not the gainer (self-gain is a no-op). A transfer removes the key from all nations first, then grants it to the gainer; lone `lose` entries are no-ops. Every key therefore ends the turn with exactly one owner — it can never be orphaned or duplicated, and a bad model answer degrades to "no transfer", never to a corrupt map.
- **Deterministic stub.** The stub now makes one contiguous conquest per turn: the player gains `frontier[0]` (sorted → stable) and its owner loses it. It answers plain content (no tool calls), so it naturally bypasses the tool loop in a single round; with an empty frontier (no controllable border — e.g. the UK in `wwii-1939`, whose only external neighbour is Ireland) nothing transfers and every existing e2e assertion stays stable.
- **No data-format change — no save wipe.** The `TerritoryChange` wire shape is unchanged and saved games load as-is, so the deploy is a plain rebuild (no `down -v`).
- **Verification.** Typecheck, lint, **105 unit tests** (79 baseline + 26 new: tool-loop protocol — echo, parsed executor args, bounded rounds, malformed args, retry; engine tool-path wiring + fallback; `playerFrontier`; executor degradation; sole-ownership invariants; `neighboursOf`/`hasAdjacency`), the production build, and all **14 e2e** tests pass.
- **Deploy:** manual `docker compose up -d --build` on the host (no `down -v`).
- Part of #16 — P3 (region rename/split/merge) and P4 follow; #16 stays open.
## v0.20.0 — 2026-10-14 09:30
- **Fixed: v0.19.0's region-level ownership did not activate in the production image.** The server-side region loader (`server/regions.ts`) only looked for the manifest + geo in `public/`, but in the Docker image Vite copies `public/*` → `dist/` and no `public/` directory is kept — so `loadRegions` found nothing, `expandCountriesToKeys` degraded to a no-op, and freshly-created games kept raw ISO_A3 codes (`DEU`, `GBR,IRL,IND`, …) instead of expanding to region keys. The choropleth therefore still rendered whole-country ownership and the model's region-key contract was inactive in prod (the client's own `/region-keys.json` fetch still worked, because the client is served from `dist/`). `loadRegions` now probes `public/` (dev) then `dist/` (prod, == `clientDir`) and uses the first directory holding both files, so one build works in both environments. A new test covers the prod-only (`dist/`), dev (`public/`), and empty-root (no data) layouts.
- **Deploy:** `docker compose down -v` (drops the `history-data` volume — pre-v0.19 saves were already dropped by v0.19.0 and are dropped again here) then `up -d --build`.
## v0.19.0 — 2026-10-14 09:14
- **Region-level ownership foundation (Part 1 of #16): internal territory ownership flips from whole countries to individual sub-regions.** Previously a nation owned *whole countries* (a `territory` list of ISO_A3 codes) and every sub-region of a country shared the parent's color, so a single region could never change owner independently. Now each owned sub-region is addressed by a stable **region key** — `<name-slug>-<4char>`, e.g. `moselle-rygy`, `ain-lqtt`, `western-alun` — generated deterministically by `scripts/build-region-keys.mjs` into `public/region-keys.json` (**1,796 unique keys** over the 1,796 sub-regions). A key is a slug of the region's name (NFKD, diacritics stripped, lowercased, non-alphanumerics → `-`) plus a 4-character hash of the feature's stable id, salted on within-country name collisions, so it is stable, human-readable, and globally unique (a "western" collision group yields `western-alun` / `western-qwvr` / `western-adsp` / …; an accented name like Shkodër becomes `shkoder-gmnr`).
- **The map, the model, and the LLM all now reason in region keys.** `Nation.territory` and the `RegionMap` are keyed by region key; the choropleth resolves each sub-region's owner by its stamped `properties.regionKey` (never the repacked numeric feature `id`, never the raw sub-region id — the #6 guard, now region-keyed). A new `server/regions.ts` (turf-free) loads the manifest + geo once at boot and **expands each nation's country list to all its sub-regions' keys at game creation**, so a fresh game shows every sub-region in its owner's color — visually identical to the old whole-country choropleth, but each sub-region is now individually addressable. The LLM prompt gains a `regions` reference table (region key → "<name> (parent ISO_A3)"), and `applyTurnResult` ignores any territory key not in the valid set, so a hallucinated key can't corrupt ownership.
- **The dossier shows region names.** NationPanel's territory chips display each sub-region's human name (e.g. "Ain", "Wales", "Moselle") with the raw key in the tooltip / data attribute, instead of bare codes.
- **⚠ Breaking — pre-v0.19 saved games are dropped.** The `territory` field's meaning changed from ISO_A3 country codes to region keys, so a game saved before this version can't be read by it. Deploy runs `docker compose down -v` (dropping the `history-data` volume) then `up -d --build`; there is no migration — start fresh after deploying.
- **Supersedes the abandoned `feat/sub-region-territory` branch**, which prototyped raw feature-id keys (`DEU-03`); this version uses the slugged, human-readable key scheme instead.
- **Verification.** Typecheck, lint, and the unit suite (now **71 tests across 7 files**: +`server/regions.test.ts`, a rewritten `server/map.test.ts`, +2 in `engine.test.ts`) all pass; the production build is clean. The deterministic `LLM_STUB` and the format-agnostic e2e suite (legend/stats/dates) are unchanged. **#16 stays open** — P2 (LLM tools / function-calling for reliable region ops) and the no-man's-land rename/split/merge phases follow.
## v0.18.0 — 2026-10-13 18:54
- **Fixed a stale-owner display bug: the region hover tooltip and the dossier "Selected" label no longer print the static parent-country code (e.g. "FRA").** The GeoJSON `properties.parent` is a *static geographic-origin* field that never updates when a country is taken, yet it was rendered in the hover tooltip (as a sub-line and as a title fallback) and in the dossier's `Selected:` label (as a `(FRA)` suffix) — so a sub-region of a transferred country still displayed the old country's code next to the (correct) new owner. The tooltip now shows only the region name + the live owner chip (from the RegionMap) + key stats, and the dossier label shows only the region name. Ownership resolution still keys on `properties.parent` (unchanged) — only the display of it was removed.
## v0.17.0 — 2026-10-13 15:13
- **Filled the no-one's-land left between merged sub-regions (Part of #16).** The v0.14 coarsening's boolean dissolves left slivers of each country's landmass inside no region — measured at **≈ 3.90M km² globally** (the union of a country's regions covered only ~98% of its landmass). The new `scripts/fill-gaps.mjs` (`npm run fill:regions`) closes them: per country it computes the gap (`landmass − union(its regions)`, `@turf/difference`+`union`), drops slivers < **25 km²** (66,637 of them — sub-pixel on the map), and assigns each remaining piece to the **nearest region** (centroid distance) as an appended MultiPolygon part. **2,696,811 km²** of no-one's-land was filled into **1,575 regions** (+6,768 parts: 5,026 → 11,794), leaving **63,889 km²** residual (**98.4% reduction** — the rest is coastline digitization fuzz and 14 tiny border-band overlap artifacts, see below). The named "messy" regions absorb their surroundings: **SI-048 Kočevje (SVN) 16,692 → 19,816 km² (57 → 90 parts)**, **MK-36 Kavadarci (MKD) 21,297 → 25,190 km² (8 → 17)**, **AZ-AGC Ağcabədi (AZE) 18,657 → 32,065 km² (7 → 14)**; the biggest single fills are **AQ-X01~ (Antarctica) +195,351 km²**, **CA-NU (Nunavut) +143,447**, **AQ-X02~ +142,615**, **CL-MA (Magallanes) +81,806**, **US-AK (Alaska) +63,830**, **CA-NT (NWT) +46,333**, **GL-UO (Kommuneqarfiup) +41,971**, **RU-KAM (Kamchatka) +41,911**.
- **Correct, not just greedy: clipping, hole policy, dedup.** Each gap piece is clipped sequentially against (a) all *other countries'* regions, (b) its own country's existing regions, and (c) pieces already appended (bbox-touching) — so a piece straddling a border is split, and no piece can double-cover another region's area (**1,149,841 km² of foreign overhang removed** this way; 0 clip failures). **FR-57 Moselle (FRA) gains nothing on purpose**: its apparent gap was a cross-border phantom consumed by the neighbor clip — correct behavior. Holes follow a keep-or-drop policy: a gap hole whose centroid matches a **pre-existing hole** (within 10 km) or lies inside another country's landmass is kept, otherwise it's a phantom and dropped — so the **KZ-KZY Aral hole survives** (5,858 km² planar, the file's only hole; 5,875 km² of water kept open). A global dedup set guarantees each cleaned piece is appended at most once.
- **The dataset contract is untouched.** Still **1,796 regions** with identical `id` / `properties.name` / `properties.parent` and order — the fill only *appends* parts; all **177 countries** covered; the single KZ-KZY hole intact. **14 genuinely new overlap pairs** remain (13 same-country border bands + 1 cross CN-FJ×TW-KIN) — a known polychip artifact of filling right up to a shared boundary (the pre-fill file already carried 3,690 pre-existing pairs), and they are sub-pixel at map scale, so they're accepted. The file grows **2,289,528 → 3,399,806 bytes (2.29 → 3.40 MB)** — under the 5 MB guard, so no Douglas–Peucker pass is needed.
- **Deterministic + idempotent.** Fixed 25 km² threshold, deterministic ordering (centroid → area → id), 4-dp rounding (same convention as the other scripts). A fresh run on the pristine v0.16 file reproduces the shipped byte-for-byte (sha256 `87f44198…`), and re-running on the filled file is a no-op (byte-identical output).
- **Tests** — `scripts/regions.test.ts` (now 9 tests): the v0.16 fixed-point pin is updated to the v0.17 topology (1,796 regions, 11,794 parts, 11,795 rings, 164,801 vertices, 1 hole); a new test asserts the **only** hole in the file is KZ-KZY and sits in a realistic 5,000–7,000 km² band; a new **grid-sampled per-country coverage** test (25×25 grid per country, inline even-odd ray cast) asserts no significant no-one's-land remains — median 1.8% / p90 6.1% / max 26.4% (BRN, a coastline-denseness artifact, not a real gap), with thresholds at 5% / 15% / 40% and ≤3 countries above 20%. The planar sum band's upper bound widens 175% → **190%**: the fill only adds area *inside* each country, so it can't shrink the pre-existing admin-1 over-extension tail (Vanuatu 178.9%, Solomon Is. 133% — tiny island nations whose admin-1 polygons extend beyond their own country polygon), while the old under-fill tail is gone (minimum is now Brunei at 78.8%, was ~52%).
- **Type-check gotcha (why the test stays turf-free):** the project keeps `@types/geojson` **out of the tsc program** (tsconfig `types: ["vite/client", "node"]`). maplibre-gl's d.ts references the `GeoJSON` UMD global *without importing it*, so under `skipLibCheck` the reference degrades to `any` and `WorldMap.tsx`'s deliberately-minimal `GeoFeature` (with `geometry: unknown`) passes. The moment anything (e.g. a test importing `@turf/turf`) pulls `@types/geojson` into the program, those references typecheck for real and `WorldMap.tsx` fails with 7 errors. The v0.14–0.16 scripts are `.mjs` (never typechecked) for exactly this reason; the new test uses an inline ray cast instead of a geometry library, and `@turf/*` (a new devDependency, 137 packages including the meta `@turf/turf`) is only ever *run* by the `.mjs` scripts.
- Part of #16
## v0.16.0 — 2026-10-13 09:37
- **Smoothed the jagged sub-national region boundaries with Douglas–Peucker vertex-thinning (Part of #16).** The v0.14 coarsening (boolean dissolve) and Natural Earth's 1:10m digitization left some boundaries overly jagged — the worst being regions the dissolve split into many small zig-zag fragments, e.g. **SI-048 Kocevje (Slovenia, 57 parts)** and **MK-36 Kavadartsi (N. Macedonia, 8 parts)**. The new `scripts/smooth-regions.mjs` (`npm run smooth:regions`) runs `@turf/simplify` (Ramer–Douglas–Peucker, tolerance ~**50 m**) over **every ring of every polygon**, dropping the redundant "in-between" vertices of a shallow zig-zag while keeping the overall shape.
- **Vertex-thinning only — no topology change.** DP only removes points: it never moves a border, never merges/dissolves a part, and never creates or removes a ring. So the dataset contract is fully preserved — still **1,796 regions** with identical `id` / `properties.name` / `properties.parent`, all **177 countries** covered, the same **5,026 parts / 5,027 rings**, the single **KZ-KZY** hole, and all **83 islands**. The 18 degenerate 3-point "micro-dot" rings (Ragged Island, the Paracels, …) are kept verbatim (`@turf/simplify` requires ≥4 pts and would otherwise throw).
- **A gentle pass, reported honestly.** At 50 m the dataset is already fairly smooth (the v0.14 dissolve produced low-vertex, widely-spaced boundaries — median consecutive-vertex spacing ~18 km), so this is a light cleanup: **111,891 → 111,175 vertices (716 removed, 0.64%)** across **542 of 1,796** regions. **Kocelje 612 → 599** and **Kavadartsi 169 → 163** verts; both keep their exact part count (the "mess" there is fragmentation, which thinning — under the no-topology-change constraint — does not fix). The file shrinks **2,302,473 → 2,289,528 bytes (2.29 MB)**. Bump `TOLERANCE_M` to 100 / 200 m and re-run for a stronger pass (100 m → 974 removed; 200 m → 1,312 removed) — the pass stays idempotent either way.
- **The "messy" regions are really fragmentation artifacts, not fine jaggedness.** Ranking by **part density** (parts packed per unit area) rather than raw part count — which is dominated by legitimate *dispersed* archipelagos (Nunavut 213, Alaska 159, Antarctica 135, British Columbia 84) — surfaces the genuinely messy **coherent regions the dissolve left fragmented**: **SI-048 Kocevje (SVN, 57 parts in ~16,600 km²)**, **GR-H Stereá Elláda / Central Greece (GRC, 53 parts)**, **KR-46 South Jeolla (KOR, 28 parts)**, **SE-C Uppsala (SWE, 19 parts)**, **HR-13 Zadarska (HRV, 17 parts)**, plus the milder Balkan **MK-36 Kavadartsi (MKD, 8 parts)**. These real land regions (the Balkan ones in particular) ended up as many scattered fragments — the "similar shape problems".
- **Deterministic + idempotent.** One `@turf/simplify` pass at a fixed tolerance, then 4-dp rounding (the same convention as the other scripts). The output already sits at the pass's fixed point, so re-running on the smoothed file is byte-identical (sha256 `70a43541…`, verified across repeated runs); `public/regions.geo.json` and the built `dist/regions.geo.json` are sha256-identical.
- **Tests.** `scripts/regions.test.ts` gains an eighth test pinning the v0.16 fixed point: 1,796 regions, 5,026 parts, 5,027 rings, the single KZ-KZY hole, and exactly **111,175** vertices (8 tests total). All prior assertions (well-formed, unique ids, 177-country coverage, area floor, holes, coverage band) pass unchanged on the smoothed dataset.
- Part of #16
## v0.15.0 — 2026-10-12 13:49
- **Filled the small holes left by the v0.14 coarsening (Part of #16).** The coarsened `public/regions.geo.json` still carried **2,245 tiny enclosed holes** (all < 500 km² in practice) — unfilled patches left by the boolean dissolves and Natural Earth's own digitization, which showed up as "holes in regions". The new `scripts/cleanup-regions.mjs` (`npm run cleanup:regions`) drops every inner ring smaller than the 1,000 km² threshold so each region becomes solid: across **498 features, 56,484 km²** of artifact area was filled, removing the visible unfilled dots.
- **Real water is kept, not erased.** Any enclosed hole ≥ 1,000 km² survives as a hole. In this dataset the genuinely large lakes (the Great Lakes, the Caspian, the Aral, Lake Superior) had already been dissolved by the v0.14 coarsening, so none remain to preserve; the only surviving hole is a single medium one — **KZ-KZY (Kyzylorda, Kazakhstan) at 5,858 km²**, a real water body in the Aral basin — which is kept. The 1,000 km² threshold sits comfortably between the tiny artifacts (all < 500) and any genuine lake, so it fills exactly the artifacts and nothing else.
- **The dataset contract is untouched.** Still **1,796 regions** with identical `id`s / `properties.name` / `properties.parent` (0 mismatches), all **177 countries** still covered, the ~100 km floor and the island exemption intact — only inner rings were dropped, never a feature or its identity. The file shrinks 2,431 → **2,249 KB (2.20 MB)** (fewer inner rings).
- **Deterministic + idempotent.** Fixed threshold, deterministic planar geometry, 4-dp rounding; re-running on the cleaned file rewrites a byte-identical file (sha256-verified). Bridging very-close MultiPolygon parts is available behind an opt-in `--bridge` flag but is **off by default**, because the union it performs can itself mint new medium-sized holes — counter to the fill-holes goal — so the shipped run is the clean hole-fill only.
- **Tests.** `scripts/regions.test.ts` gains a seventh test asserting that no enclosed hole below the cleanup threshold remains and that only a handful of real water bodies survive (57 tests total). `public/regions.geo.json` and the built `dist/regions.geo.json` are sha256-identical.
- Part of #16.
## v0.14.0 — 2026-10-12 09:51
- **Coarsened the sub-national choropleth dataset to a ~100 km floor (Part of #16).** `public/regions.geo.json` shrinks from 4,138 real administrative regions to **1,796** (2,342 merges): every region smaller than ~100×100 km (10,000 km²) that has a same-country neighbor within 0.2° (≈22 km) of its bounding box is **dissolved into its nearest such neighbor** (nearest by centroid distance; ties → larger area, then id). Standalone cities and micro-districts collapse into the region around them: `US-DC` (191 km²) into Maryland, `FR-75` Paris (59 km²) into Hauts-de-Seine, the UK's 232 admin-1 districts down to **16** regions, and all of North Macedonia's 85 municipalities into one whole-country region.
- **Islands are exempt.** A region with no same-country neighbor within 0.2° keeps its shape whatever its size — **83** such small islands survive in the final set (Corsica, the Kerguelen/Crozet archipelagos, the Bahamas districts, Lord Howe, …) and the coarsening's fixed point leaves **0** non-island regions below the floor.
- **Real dissolve, not overlap.** Each merge is a real boolean union (`@turf/union`, polygon clipping) that removes the shared boundary between the merged region and its host, yielding one clean polygon — the final dataset has **0** fallback (non-dissolved) unions. Passes iterate smallest-area-first to a fixed point (2 passes on the v0.13 data, ~7 s); the output is sorted by (parent, id) at 4-dp precision and is byte-reproducible: re-running on the coarsened file reaches the fixed point immediately and rewrites an identical file (sha256-verified).
- **Numbers.** Per-country region count: min 1 / median 7 / max 80 (Russia; was 1 / 15 / 232 — the UK). Region areas: median 23,933 km²; smallest ≈0 (degenerate micro-dots like Ragged Island and the Paracel Islands, kept as islands); largest is Antarctica itself (≈21.8M km² in the planar model, exempt — it wraps a full 360°). 158 of the 177 countries had at least one merge. The file is 2,431 KB (2.37 MB) — under the 5 MB guard, so no Douglas–Peucker pass was needed.
- **Tooling + tests.** New `scripts/coarsen-regions.mjs` (`npm run coarsen:regions`) performs the merge in place; `scripts/regions.test.ts` gains a sixth test asserting that below-floor non-island regions stay under 1% of the dataset (currently 0) alongside the existing well-formed / unique-id / 177-country coverage / area / coverage-band checks (56 tests total). The map's data contract is unchanged (`properties.parent` → RegionMap), so `WorldMap.tsx`, `App.tsx`, `shared/protocol.ts`, and `server/map.ts` all keep working as-is.
- Part of #16.
## v0.13.0 — 2026-10-12 08:30
- **Replaced the geometric sub-region grid with real named sub-national administrative regions (#16, PR 2).** The choropleth source `public/regions.geo.json` now contains real named administrative regions — states, provinces, governorates, oblasts, … (Natural Earth admin-1, 1:10m) — instead of the abstract ~100–200 km geometric grid. Each region keeps a stable `id` and a `name`. The map's data contract is **unchanged** (`properties.parent` → the parent country's ISO_A3, `properties.name` → the region name), so no change to the map code or the LLM contract: `WorldMap.tsx`, `App.tsx`, `shared/protocol.ts`, and `server/map.ts` all keep working as-is.
- **Generator rewritten** — `scripts/generate-regions.mjs` (same path, dependency-free, `npm run generate:regions`) now groups the admin-1 features by their `adm0_a3` (the parent's ISO_A3), keeps only parents in the 177-country set, and id's each region with its ISO 3166-2 code when present (e.g. `US-CA`, `FR-75`, `RU-MOW`) else `<ISO_A3>-<nn>`; within a country, ids are disambiguated with a `-2/-3/…` suffix on collision (ISO 3166-2 codes are not always unique within a country — e.g. all nine of Bosnia's entities report `BA-BIH`). A country with no admin-1 data would collapse to one whole-country region `<ISO_A3>-01` (0 are needed at 1:10m, which covers all 177). Coordinates are rounded to 4 decimal places, and the file is Douglas–Peucker-simplified only if it exceeds the ~8 MB guard. Output is sorted by (parent, id) and fully deterministic.
- **The dataset is 4,138 regions covering all 177 countries**, 2,831 KB (2.76 MB) after Douglas–Peucker (the 4-dp base is ~23 MB). Per-country region count: min 1 / median 15 / max 232 (United Kingdom). There are **0 whole-country fallbacks** — 1:10m admin-1 covers every one of the 177 (the five single-region countries are SOL, SAH, CYN, PRI, FLK). Samples: `US-CA` California and `US-NY` New York (US); `FR-75` Paris and `FR-13` Bouches-du-Rhône (France); `RU-MOW` Moskovskaya (Russia).
- **Validation test updated** — `scripts/regions.test.ts` was rewritten for the new dataset: well-formed features, globally unique ids, all 177 countries covered (≥1 region each), sane region areas (median ≥ 100 km², no non-Antarctica region ≥ 5,000,000 km² — Antarctica is exempt because its full-360° wrap ring breaks the planar area model), and each country's region area summing to within [40%, 175%] of its own area (median within [70%, 130%] — the band is wider than a naive [40%, 110%] because Natural Earth's admin-1 polygons are digitized independently of the admin-0 country polygons and are not clipped to them). Runs in O(total vertices).
- Part of #16.
## v0.12.0 — 2026-10-12 01:03
- **Map now renders the sub-national regional dataset (#16, PR 2).** The choropleth source switches from `public/countries.geo.json` (177 countries) to `public/regions.geo.json` (**2,597 sub-regions**): each country is subdivided into ~100–200 km regions, shown as a finer choropleth with thin internal border lines. The MapLibre source/layer ids are renamed `countries`/`countries-fill`/`countries-line` → `regions`/`regions-fill`/`regions-line`, and the border line is thinned to `0.75` (from `1.25`) so the subdivision reads within each country.
- **Ownership stays at country granularity.** A nation still owns whole countries, so every sub-region of a country shares that country's owning-nation color (the fill is "same colors as the country map, but subdivided"). The owner of a sub-region is resolved from the RegionMap via the feature's `properties.parent` (the parent country's ISO_A3) — never the sub-region id (`FRA-03`) nor the repacked top-level `feature.id`. Clicking a sub-region switches the dossier to its parent country's owning nation (unchanged behavior); the hover tooltip now also shows the sub-region name + its parent country; a small "Selected …" label appears in the dossier after a map click.
- **New shared helper `mapFeatureOwner(regions, feature)`** in `@shared/protocol` — the single source of truth for resolving a rendered map feature's owner via `properties.parent` → `RegionMap[parent]` (built on the existing `regionOwner` key lookup). The territory-change **flash** now expands a changed country to **all** of its sub-regions (via the new `featuresByParents`), so a whole-country transfer still pulses correctly at the finer resolution.
- **No ownership-model or LLM change** — `buildRegionMap`/`RegionMap` remain ISO_A3-keyed and the engine still references whole countries; this PR only changes what the map draws. Sub-region-level ownership (individual regions changing hands) is PR 3.
- **Tests** — new `mapFeatureOwner` unit tests and an updated #6 regression guard pinning the sub-region feature shape (numeric `id`, `regionId` = sub-region code, `parent` = ISO_A3) and proving resolution via `parent` while the sub-region id and repacked id do not resolve (55 unit tests). The e2e suite needed no changes: it asserts on the legend (derived from the ISO_A3 RegionMap) and screen structure, not on map geometry.
- Part of #16.
## v0.11.0 — 2026-10-12 00:31
- **Sub-national region dataset + generator (#16, foundation only — no app behavior change).** A new dependency-free `scripts/generate-regions.mjs` (run via `npm run generate:regions`) splits each of the 177 countries in `public/countries.geo.json` into adaptive ~100–200 km sub-national regions on a regular lat/lon grid clipped to the country (Sutherland–Hodgman), and writes the committed `public/regions.geo.json` (**2,597 regions**, ~755 KB). Each region is id'd `<ISO_A3>-<nn>` (nn = 1..k in row-major order, capped at 36 per country) with `properties = { name, parent }`, so downstream work can map any region back to its parent nation. Antimeridian countries are handled three ways: small island groups (Fiji) stay a single whole-country region; large ones (Russia) are tiled in shifted [0,360) longitude space with output rings split at ±180°; and the full-360° Antarctic wrap ring becomes two hemispheric wedges. The output is fully deterministic — the same input yields a byte-identical file (verified by sha256).
- **Validation test** — new self-contained `scripts/regions.test.ts` (picked up by `npm test`) reads the two GeoJSON files once each and asserts: the file is a well-formed FeatureCollection; every region is a valid feature whose id matches `^[A-Z]{3}-\d+$` and whose `parent` is a real country id; every country has 1–36 regions (≥2 for any country larger than 50,000 km²); every region has a sane area (≥ 200 km², with a microstate exemption, and < 5,000,000 km²); and each country's regions sum to 45–108% of its own area (the measured range is ~[64%, 105%] — Antarctica's wedges under-fill, Norway's high-latitude fjord coast over-fills by 0.1%). No change to the running app, the LLM contract, or the map — this is purely the dataset + tooling that later PRs for #16 build on.
- Fixes #16.
## v0.10.0 — 2026-10-11 21:25
- **Fix world map style (#2)** — made the choropleth fill fully opaque (`fill-opacity` 0.85 → 1.0) and darkened the Natural Earth terrain raster (`raster-opacity` 0.5 → 0.15), so the raster's flat water tint and fine 1:10m coastline no longer bleed through countries and compete with the borders.
- **Strengthened country border lines** — border width 0.7 → 1.25, and the per-region stroke alphas raised (owned 0.10 → 0.30, unowned 0.06 → 0.14) so the vector borders read clearly as the dominant edge, with owned regions still more prominent than unowned ones.
- Fixes #2.
## v0.9.0 — 2026-10-11 20:57
- **Reduced turn latency (prompt-level):** capped `recentEvents` in the turn prompt from the last 10 to the last 5 events, and added a HARD CONSTRAINT asking the reasoning model to keep its internal analysis brief before emitting the JSON. This shortens the chain-of-thought (the 170–223s turn driver) and lowers the risk of exhausting the 4000-token output budget before the answer (the original 502 failure mode). Reasoning stays enabled (`reasoning_effort: low`); the deterministic stub, the `TurnResult` contract, `max_tokens`, and `reasoning_effort` are all unchanged.
## v0.8.0 — 2026-10-11 20:29
- **Remove a saved game (#20)** — every saved game now has a delete control: a trash button on its card in the home screen's "Saved games" section opens a confirmation dialog ("Delete this game?" showing the scenario/turn/date) with Cancel and a destructive Delete. The new `DELETE /api/games/:id` route removes the game's row from SQLite and returns `{ deleted: true }` (404 if the id is unknown).
- **Redirect on a missing/deleted game (#20)** — loading a non-existent game id no longer leaves you stranded. A deep link to a missing game already fell back to home, and now a game that disappears *while its tab is open* (deleted from another tab or the same session) is pushed home too: the server broadcasts an SSE `error` event on delete, and the client's `useSse` gains an `onError` handler that returns the tab to the home screen (matching the existing "game not found" connect behavior).
- `PresetPicker` gained an `onDelete` prop, a per-card `data-game-id` attribute, the delete button, and the confirm dialog; `api.deleteGame(id)`, `Db.delete(id)`, and the shared `DeleteGameResponse` type were added to support it.
- **Unit + e2e tests** — new `Db.delete` test (removes by id; reports absence for unknown / already-gone ids) and two e2e specs: (a) deleting a saved game from the home screen (open → cancel leaves it; confirm removes the card, the response is `{deleted:true}`, and a follow-up `GET` is 404), and (b) deleting an open game (the live tab is pushed home via the SSE error, and a fresh deep-link to the deleted id lands on home).
## v0.7.0 — 2026-10-11 19:17
- Clicking a map region now switches the selected dossier to that region's owning nation instead of opening a popup (#7). The closeable click popup is gone; a hover tooltip (owner + key stats) is kept. The manual "Inspect" selector still works and stays in sync — both it and a map click drive the same dossier target.
- Fixed: a clicked owned region no longer reports "no owner" (#6). Root cause: MapLibre repacks a GeoJSON source's top-level `id` (the ISO_A3 string) into a numeric index when it stores the source, so the feature a click/hover handler receives has a *number* for `id` — the old `regions[f.id]` lookup resolved to nothing, and the popup read "No owner" even for owned regions (the choropleth fill still worked because it is stamped from the original `id` before `setData`). Fix: `applyRegions` now stamps the stable ISO_A3 code into `properties.regionId` (and `ownerId`), which survives into the rendered features, and both the click and hover handlers resolve the owning nation from that code via the authoritative RegionMap — never from the repacked `feature.id`.
- Unowned regions (no entry in the RegionMap) do not change the dossier when clicked — the current target is left in place (a deliberate, non-crashing choice rather than a special "unowned" dossier state).
- New shared helper `regionOwner(regions, isoA3)` in `@shared/protocol` (the pure, single source of truth for "ISO_A3 → owner record").
- **Unit tests** — new `regionOwner` tests (owned → owner record, unowned → undefined, empty/missing → undefined) plus a #6 regression guard that pins the exact MapLibre-repacked feature shape (numeric `id`, ISO_A3 in `properties.regionId`) and asserts resolution via `properties.regionId` works while the old `feature.id` path fails (44 tests, up from 39).
## v0.6.0 — 2026-10-11 18:27
- Advisor fetches now show a "thinking" indicator (mirroring the turn's "Simulating…" hint) while the model responds, and the Ask-advisor button disables during the fetch; the top-bar status shows "Advisor thinking…" in the meantime. Fixes #15.
## v0.5.0 — 2026-10-11 17:36
- **HUD revamp** — removed the "Map" window (the full-screen map is directly interactive via scroll/trackpad; no floating zoom control, and the now-dead `MapApi`/`onMapReady` map plumbing is removed from `WorldMap`); the top bar is now a fixed, non-movable element pinned to top-center a few px from the top (a new `pinned` mode on `FloatingWindow` — viewport-centered, no drag, no persisted position, always above other windows); and the dossier / event-feed / action panels can each be docked into a left or right full-height pane (a new `dock`/`onDockChange` mode on `FloatingWindow`, with small left/right/float controls in each title bar, choice persisted in `localStorage` and reproduced on reload; the default "float" reproduces the current first-run layout exactly). The legend stays a small floating widget. Fixes #4, Fixes #5.
- **`FloatingWindow`** — new optional props: `pinned` (top-center fixed bar), `dock` (`'left'`/`'right'` full-height columns) and `onDockChange` (renders the dock controls and reports the mode), plus `dataTestId` (a `data-testid` on the window root for e2e). `anchor` is now optional (defaults to `top-center`).
- **New `data-testid`s** — `top-bar` (pinned header), `panel-dossier` / `panel-feed` / `panel-action` (per-window roots), and `dock-left` / `dock-right` / `dock-float` (per-window dock controls).
- **New localStorage key** — `history.floatwin.v1.dock` (per-id dock mode); mirrors the existing `history.floatwin.v1.collapsed`.
- **E2E** — new "HUD revamp" suite: asserts the Map window and its zoom buttons are gone, the top bar is pinned and horizontally centered a few px from the top (and doesn't move under a drag attempt), the dossier docks to the left edge (full-height) and the feed to the right edge, and a dock choice survives a page reload — all deterministic under `LLM_STUB=1` (11 tests, up from 9).
## v0.4.0 — 2026-10-11 16:02
- **Fix: queued items disappearing from the pending list (#10).** Root cause: SSE `state` events carried no freshness information, and the client's `onState`/`onTurn` handlers applied any incoming snapshot unconditionally. A stale snapshot — e.g. the SSE on-connect resync taken just before an add was saved, or an EventSource auto-reconnect — could arrive *after* the add's REST response and clobber it, so "add one: nothing happens, add another: both appear". Fix: every mutation now bumps a monotonic `GameState.version` (persisted in SQLite, started at 1 on create, bumped by `queueRoundItem`, the new `removeRoundItem`, and `applyTurnResult`; legacy games without the field are treated as version 0), and the client routes *every* state ingestion (SSE events, add/remove/jump responses, game loads) through a single "never go backwards" rule: a different game id is always adopted, the same game only when the incoming version is not older than the current one (compared inside the functional `setGame` updater, so it is stale-closure-proof).
- **New: remove button for queued items (#11).** Each pending-queue row in "Your move" has a small trash-icon button that opens a shadcn `Dialog` confirmation (item quoted, Cancel / destructive Remove, dark command-center styling). Confirming calls the new `POST /api/games/:id/queue/remove` (body `{ index }`) — same fast save → broadcast → respond order as the add routes, no LLM, no turn advance; invalid indices get a 400. The client `api.removeQueueItem(id, index)` is version-gated like every other state update, so the list can never regress after a removal.
- **Unit tests** — new `removeRoundItem` tests (valid removal + version bump, out-of-bounds/non-integer → `null`), version-bump assertions for `queueRoundItem`/`applyTurnResult`/stub turn, a legacy-no-version case, and version round-trip in `db.test.ts` (39 tests, up from 35).
- **E2E** — new "queue add is never clobbered by a stale SSE snapshot" test (one add appears immediately, still there after a 1s grace period for late SSE events, version strictly increases across adds, queue survives a full page reload) and a "remove with confirmation" test (cancel keeps the item, confirm removes it, no turn advance, version persisted) — all deterministic under `LLM_STUB=1`.
## v0.3.0 — 2026-10-11 15:29
- **Deep-linking** — the active game's id now lives in the URL (`#/game/<id>`), so a link opens that exact game and two tabs can run two different games; a bad or missing id falls back to the home screen. Fixes #3.
## v0.2.0 — 2026-10-11 14:24
- **Batched round model** — replaced the single-action/turn with a queued-round model. Actions and diplomatic messages accumulate in `game.pending` (no LLM call, no turn advance); a single "Jump forward" button commits the whole batch in one LLM turn. This fixes the 502 reliability problem by making each LLM call do one coherent batch of work instead of one tiny fragment.
- **New routes** — `POST /api/games/:id/action` and `POST /api/games/:id/diplomacy` (fast, no LLM); `POST /api/games/:id/jump` (the single LLM call); `POST /api/games/:id/turn` removed.
- **New client API functions** — `api.addAction(id, text)`, `api.addDiplomacy(id, to, message)`, `api.jump(id)`; `api.turn(...)` removed.
- **ActionPanel rewrite** — Action tab: textarea + small "Add action" button. Diplomacy tab: target select + textarea + small "Add to round" button. Advisor tab: input + "Ask advisor" button. Below the tabs: a visible pending-queue list (⚡ for action, 💬 for diplomacy with target name, truncated text, count badge) and a large "Jump forward" primary button that shows the pending count and disables while a jump is in flight.
- **App.tsx** — `runAddAction` / `runAddDiplomacy` handlers (no busy state); `runJump` (with busy); the "Your move" window's title bar now shows a pending-count badge chip instead of the old jump button.
- **Deterministic stub updated** — `deterministicTurn` now emits one event per queued item (action → military/success, diplomacy → diplomatic/partial) instead of one event per turn; still sets player military to `clamp(cur+5)` and allies with the first other nation.
- **Unit tests** — rewrote `engine.test.ts` with batch-aware tests (7 new tests, 35 total up from 28); updated `db.test.ts` and `map.test.ts` fixtures to include `pending: []`.
- **E2E** — rewrote `e2e/sim.spec.ts` to the new flow: queue action → assert pending list → queue diplomacy → assert pending list → jump → assert turn+1, date+2, military 80→85, two events, pending cleared, ally relation.
- **AGENTS.md** — added Gitea-issue step to the change process; updated Layout and Conventions to reflect the batched-round model.
## v0.1.0 — 2026-10-11 08:02
- Added a Gitea Actions CI pipeline (`.gitea/workflows/ci.yml`: `typecheck → lint → unit → build → deterministic Playwright e2e`). E2e runs against the app's own dev webServer (`LLM_STUB=1`) — no dind/docker.
+8 -6
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@@ -1,11 +1,11 @@
# History
A self-contained, AI-driven **alternate-history simulator** in the spirit of _Pax Historia_ — the
LLM is the world engine. Pick one of five seed scenarios, choose a nation to lead, then take
actions, send diplomatic messages, or consult an advisor. Every move is sent to the model, which
returns a structured `TurnResult` (events + stat / relation / territory deltas) that the engine
validates, clamps, and applies to the world state. A MapLibre choropleth renders who owns what;
everything persists to SQLite and streams over SSE on a single port.
LLM is the world engine. Pick one of five seed scenarios, choose a nation to lead, then queue
actions and diplomatic messages into a pending round; a single "Jump forward" sends the whole batch
to the model, which returns a structured `TurnResult` (events + stat / relation / territory deltas)
that the engine validates, clamps, and applies to the world state. A MapLibre choropleth renders
who owns what; everything persists to SQLite and streams over SSE on a single port.
```
┌────────────┐ /api + /sse ┌──────────────────────────────┐ OpenAI chat ┌──────────────┐
@@ -91,7 +91,9 @@ before auto-merging. After merge, tag the version and deploy manually (`docker c
## Design notes
- **Server is authoritative.** All world state lives in SQLite; the client only renders state and
sends intents (`turn` / `jump` / `advisor`). The engine never trusts raw model output — it strips
sends intents (`action` / `diplomacy` / `jump` / `advisor`). Actions and diplomatic messages are
queued into `game.pending` (no LLM call, no turn advance); a single `jump` ("Jump forward")
commits the whole batch in one LLM turn. The engine never trusts raw model output — it strips
fences, extracts the first balanced `{…}`, `JSON.parse`s, ignores invalid ops, clamps stats to
0–100, retries once with a nudge, and if still unusable emits a generic "unclear" event and
advances. Bad model output never crashes; only a network failure (model down) surfaces as a
+533 -35
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@@ -2,19 +2,20 @@ import { test, expect, type Page } from '@playwright/test';
/**
* Fully deterministic end-to-end test. The Playwright webServer boots the real
* stack (Vite :5173 → Express :4321) with LLM_STUB=1, so the backend uses the
* deterministic turn simulator in server/stub.ts: the player nation's `military`
* stat is set to (current + 5, clamped) each turn and exactly one event is
* emitted (action → military, chat → diplomatic, jump → political). There is no
* live LLM and no flakiness — every assertion below is an exact, predicted value.
* stack (Vite → Express) with LLM_STUB=1, so the backend uses the deterministic
* turn simulator in server/stub.ts.
*
* Beyond the core simulation loop it also asserts the polished command-center
* UI: the dossier's animated stat bars, the map legend (generated from the
* region map), and the new event cards (type icon + label + colored outcome
* badge). The map itself is a canvas, so we assert on its DOM legend, not pixels.
* Batched-round model: actions and diplomatic messages are queued in
* `game.pending` (no turn advance, no LLM call); a single "Jump forward"
* commits the whole batch in one LLM turn. The stub emits one event per
* queued item (action → military/success, diplomacy → diplomatic/partial) or
* one political "The world moves on" event when the round is empty. It always
* sets the player's military to (current + 5, clamped) and allies the player
* with the first other nation, advancing the date by 2 days.
*/
test.describe('History — deterministic simulation (LLM_STUB=1)', () => {
test('scenario → nation → action → jump, with predicted stat changes', async ({ page }) => {
test('scenario → nation → queue action + diplomacy → jump, with predicted stat changes', async ({ page }) => {
test.setTimeout(120000);
await page.goto('/');
// Home: the scenario grid loads with all 5 presets.
@@ -44,9 +45,11 @@ test.describe('History — deterministic simulation (LLM_STUB=1)', () => {
await expect(page.getByTestId('stat-stability')).toBeVisible();
await expect(page.getByTestId('stat-population')).toBeVisible();
// The player (UK) starts at military 80, with no events yet.
// The player (UK) starts at military 80, date 1939-09-01, no events yet.
const military = page.getByTestId('stat-military');
const date = page.getByTestId('game-date');
await expect(military).toHaveText('80');
await expect(date).toHaveText('1939-09-01');
await expect(page.getByTestId('event-item')).toHaveCount(0);
// The map legend is auto-generated from the region map: all 7 nations of the
@@ -54,34 +57,63 @@ test.describe('History — deterministic simulation (LLM_STUB=1)', () => {
await expect(page.getByTestId('map-legend-item')).toHaveCount(7, { timeout: 15000 });
await expect(page.getByTestId('map-legend-item').filter({ hasText: 'United Kingdom' })).toBeVisible();
// Take an action: the stub bumps UK military to 85 and emits a military event.
// --- Queue an action (no turn advance, no LLM call) ---
await page.getByTestId('action-textarea').fill('Mobilize the home guard and fortify Dover');
await page.getByTestId('action-submit').click();
await page.getByTestId('add-action').click();
// The pending list shows one queued action; turn and date are unchanged.
await expect(page.getByTestId('pending-item')).toHaveCount(1);
await expect(page.getByTestId('pending-item').first()).toHaveAttribute('data-kind', 'action');
await expect(page.getByTestId('pending-item').first()).toContainText('Mobilize the home guard and fortify Dover');
await expect(page.getByTestId('turn-count')).toHaveText('1');
await expect(date).toHaveText('1939-09-01');
await expect(page.getByTestId('event-item')).toHaveCount(0);
// The "Your move" window's title badge shows the pending count.
await expect(page.getByTestId('title-queued')).toHaveText('1 queued');
// --- Queue a diplomatic message (no turn advance, no LLM call) ---
await page.getByTestId('tab-diplo').click();
await page.getByTestId('chat-target').click();
await page.getByRole('option', { name: 'United States' }).click();
await page.getByTestId('chat-message').fill('We propose a mutual defense pact');
await page.getByTestId('add-diplomacy').click();
// The pending list now shows two items (action + diplomacy); turn still 1.
await expect(page.getByTestId('pending-item')).toHaveCount(2);
await expect(page.getByTestId('pending-item').first()).toHaveAttribute('data-kind', 'action');
await expect(page.getByTestId('pending-item').nth(1)).toHaveAttribute('data-kind', 'diplomacy');
await expect(page.getByTestId('pending-item').nth(1)).toContainText('→ United States');
await expect(page.getByTestId('pending-item').nth(1)).toContainText('We propose a mutual defense pact');
await expect(page.getByTestId('turn-count')).toHaveText('1');
await expect(date).toHaveText('1939-09-01');
await expect(page.getByTestId('event-item')).toHaveCount(0);
await expect(page.getByTestId('title-queued')).toHaveText('2 queued');
// --- Jump forward: commit the whole pending round in a single LLM turn ---
// The button sits at the bottom of the scrollable "Your move" window body
// (max-h-[72vh] overflow-y-auto) and may be outside the page viewport; a
// native DOM click bypasses Playwright's viewport actionability check.
await page
.getByTestId('jump-forward')
.evaluate((el) => (el as HTMLElement).click());
// Turn advances to 2, date to 1939-09-03 (+2 days), military 80 → 85.
await expect(page.getByTestId('turn-count')).toHaveText('2', { timeout: 20000 });
await expect(military).toHaveText('85', { timeout: 20000 });
await expect(page.getByTestId('event-item')).toHaveCount(1);
await expect(
page.getByTestId('event-feed').getByText('Mobilize the home guard and fortify Dover').first(),
).toBeVisible();
await expect(date).toHaveText('1939-09-03', { timeout: 20000 });
// The new event card carries its type (icon + label) and a colored outcome badge.
await expect(page.getByTestId('event-item').first().getByTestId('event-type-icon')).toBeVisible();
await expect(page.getByTestId('event-item').first().getByTestId('event-type')).toHaveText('military');
await expect(page.getByTestId('event-item').first().getByTestId('event-outcome')).toHaveText('success');
// Jump forward (no action): a "world moves on" political event, military → 90.
await page.getByTestId('jump-forward').click();
await expect(page.getByTestId('turn-count')).toHaveText('3', { timeout: 20000 });
await expect(military).toHaveText('90', { timeout: 20000 });
// Two events were emitted (one per queued item): one military, one diplomatic.
await expect(page.getByTestId('event-item')).toHaveCount(2);
await expect(page.getByTestId('event-feed').getByText('The world moves on').first()).toBeVisible();
// Newest first: the jump event (political / neutral) sits on top, and the
// action event (military / success) is second — both with their outcome badges.
await expect(page.getByTestId('event-item').first().getByTestId('event-type')).toHaveText('political');
await expect(page.getByTestId('event-item').first().getByTestId('event-outcome')).toHaveText('neutral');
// The pending queue is now empty — the round was committed and cleared.
await expect(page.getByTestId('pending-empty')).toBeVisible();
await expect(page.getByTestId('title-queued')).not.toBeVisible();
// Newest first: the diplomatic event (2nd queued item) sits on top, the
// military event (1st queued item) is second.
await expect(page.getByTestId('event-item').first().getByTestId('event-type')).toHaveText('diplomatic');
await expect(page.getByTestId('event-item').first().getByTestId('event-outcome')).toHaveText('partial');
await expect(page.getByTestId('event-item').nth(1).getByTestId('event-type')).toHaveText('military');
await expect(page.getByTestId('event-item').nth(1).getByTestId('event-outcome')).toHaveText('success');
});
});
@@ -91,7 +123,7 @@ test.describe('History — deterministic simulation (LLM_STUB=1)', () => {
* localStorage, so a reload (or the home screen's "Resume last game" button)
* must drop the user straight back into the same game — same turn, same stats,
* same map — rather than resetting to the home screen. Deterministic under the
* stub (UK military starts at 80 and +5 per turn).
* stub (UK military starts at 80 and +5 per committed turn).
*/
test.describe('History — save / resume across a page refresh', () => {
async function createUkGameAtTurn2(page: Page): Promise<void> {
@@ -108,9 +140,12 @@ test.describe('History — save / resume across a page refresh', () => {
await expect(page.getByTestId('turn-count')).toHaveText('1');
await expect(page.getByTestId('stat-military')).toHaveText('80');
// One action: the stub bumps UK military to 85 and advances to turn 2.
// Queue one action onto the pending round, then jump forward: the stub
// bumps UK military to 85 and advances to turn 2.
await page.getByTestId('action-textarea').fill('Reinforce the Atlantic convoys');
await page.getByTestId('action-submit').click();
await page.getByTestId('add-action').click();
await expect(page.getByTestId('pending-item')).toHaveCount(1);
await page.getByTestId('jump-forward').click();
await expect(page.getByTestId('turn-count')).toHaveText('2', { timeout: 20000 });
await expect(page.getByTestId('stat-military')).toHaveText('85', { timeout: 20000 });
}
@@ -145,3 +180,466 @@ test.describe('History — save / resume across a page refresh', () => {
await expect(page.getByTestId('player-nation')).toHaveText('United Kingdom');
});
});
/**
* Queue reliability — issue #10. A queued item must appear in the pending list
* right after its REST response AND stay there: before the fix, a stale SSE
* `state` snapshot (the on-connect resync taken just before the add was saved,
* carrying no freshness marker) could arrive after the REST response and
* clobber it — "add one: nothing happens, add another: both appear". The fix
* gives every mutation a monotonic `GameState.version` and the client applies
* an incoming state only when it is not older than the current one.
*/
test.describe('History — queue add is never clobbered by a stale SSE snapshot (#10)', () => {
test('one added action appears immediately and survives late SSE snapshots', async ({
page,
}) => {
test.setTimeout(90000);
const id = await createUkGame(page);
const origin = await page.evaluate(() => location.origin);
// Game screen at turn 1, nothing queued yet.
await expect(page.getByTestId('world-map')).toBeVisible();
await expect(page.getByTestId('turn-count')).toHaveText('1');
await expect(page.getByTestId('game-date')).toHaveText('1939-09-01');
await expect(page.getByTestId('pending-empty')).toBeVisible();
// Queue exactly ONE action and assert it appears immediately (turn/date
// unchanged, no events yet).
await page.getByTestId('action-textarea').fill('Hold the line at the channel');
const [addResp] = await Promise.all([
page.waitForResponse(
(r) => r.request().method() === 'POST' && new URL(r.url()).pathname === `/api/games/${id}/action`,
),
page.getByTestId('add-action').click(),
]);
const addBody = (await addResp.json()) as { game: { version: number; pending: unknown[] } };
expect(addBody.game.pending).toHaveLength(1);
await expect(page.getByTestId('pending-item')).toHaveCount(1);
await expect(page.getByTestId('pending-item').first()).toHaveAttribute('data-kind', 'action');
await expect(page.getByTestId('pending-item').first()).toContainText('Hold the line at the channel');
await expect(page.getByTestId('turn-count')).toHaveText('1');
await expect(page.getByTestId('game-date')).toHaveText('1939-09-01');
await expect(page.getByTestId('event-item')).toHaveCount(0);
await expect(page.getByTestId('title-queued')).toHaveText('1 queued');
// Let any in-flight / late SSE snapshot (on-connect resync, auto-reconnect)
// have its chance to arrive. Under the stub these settle in milliseconds;
// a second is generous. Before the version fix, a stale one could clobber
// the just-added item here.
await page.waitForTimeout(1000);
// The item is still there — the stale snapshot was dropped, not applied.
await expect(page.getByTestId('pending-item')).toHaveCount(1);
await expect(page.getByTestId('pending-item').first()).toContainText('Hold the line at the channel');
await expect(page.getByTestId('turn-count')).toHaveText('1');
// Protocol-level check: a later mutation (a second queued item) must carry
// a strictly higher version than the one we just saw.
await page.getByTestId('action-textarea').fill('Scramble the night fighters');
const [add2Resp] = await Promise.all([
page.waitForResponse(
(r) => r.request().method() === 'POST' && new URL(r.url()).pathname === `/api/games/${id}/action`,
),
page.getByTestId('add-action').click(),
]);
const add2Body = (await add2Resp.json()) as { game: { version: number } };
expect(add2Body.game.version).toBeGreaterThan(addBody.game.version);
await expect(page.getByTestId('pending-item')).toHaveCount(2);
// The game persisted with a version survives a full page reload.
await page.goto(`${origin}/#/game/${id}`);
await expect(page.getByTestId('turn-count')).toHaveText('1');
await expect(page.getByTestId('pending-item')).toHaveCount(2, { timeout: 15000 });
});
});
/**
* Per-item removal — issue #11. Each queued row has a small trash button that
* opens a confirmation dialog; confirming removes the item server-side
* (POST /api/games/:id/queue/remove, no turn advance) and cancelling keeps it.
*/
test.describe('History — remove a queued item with confirmation (#11)', () => {
test('cancel keeps the item; confirm removes it', async ({ page }) => {
test.setTimeout(90000);
const id = await createUkGame(page);
await expect(page.getByTestId('world-map')).toBeVisible();
await expect(page.getByTestId('turn-count')).toHaveText('1');
// Queue one action.
await page.getByTestId('action-textarea').fill('Open the back channel with Vichy');
await page.getByTestId('add-action').click();
await expect(page.getByTestId('pending-item')).toHaveCount(1);
// Trash icon → confirmation dialog.
await page.getByTestId('remove-queue-item').click();
const dialog = page.getByTestId('remove-confirm-dialog');
await expect(dialog).toBeVisible();
await expect(dialog).toContainText('Open the back channel with Vichy');
// Cancel: the item stays queued.
await page.getByTestId('remove-cancel').click();
await expect(dialog).not.toBeVisible();
await expect(page.getByTestId('pending-item')).toHaveCount(1);
await expect(page.getByTestId('turn-count')).toHaveText('1');
// Open again and confirm: the item is removed server-side.
await page.getByTestId('remove-queue-item').click();
await expect(dialog).toBeVisible();
const [removeResp] = await Promise.all([
page.waitForResponse(
(r) =>
r.request().method() === 'POST' &&
new URL(r.url()).pathname === `/api/games/${id}/queue/remove`,
),
page.getByTestId('remove-confirm').click(),
]);
const removeBody = (await removeResp.json()) as { game: { version: number; pending: unknown[] } };
expect(removeBody.game.pending).toHaveLength(0);
await expect(dialog).not.toBeVisible();
await expect(page.getByTestId('pending-empty')).toBeVisible();
await expect(page.getByTestId('title-queued')).not.toBeVisible();
// Still turn 1, no events — removing never advances the round.
await expect(page.getByTestId('turn-count')).toHaveText('1');
await expect(page.getByTestId('game-date')).toHaveText('1939-09-01');
await expect(page.getByTestId('event-item')).toHaveCount(0);
// The bumped version is persisted with the game (it survives a reload).
const after = await page.evaluate(
async (gameId) =>
((await fetch(`/api/games/${gameId}`)).json()) as Promise<{ game: { version: number } }>,
id,
);
expect(after.game.version).toBe(removeBody.game.version);
});
});
/**
* URL deep-linking (issue #3). The active game's id lives in the URL fragment:
* home is `#/` and an active game is `#/game/<id>`. A fresh page navigated to
* that hash loads that exact game; a bad/missing id falls back to home and
* clears the hash; returning to home clears it. A browser context is fresh per
* test, so localStorage is isolated, but the e2e webServer shares one SQLite
* (`data/e2e`) across tests — so each test captures the *specific* id of the
* game it creates (via the POST /api/games response) rather than assuming "the
* only game".
*/
/**
* Start the first scenario (World War II) and pick the United Kingdom, returning
* the freshly created game's id (read from the POST /api/games response). Leaves
* the caller on the game screen at turn 1.
*/
async function createUkGame(page: Page): Promise<string> {
await page.goto('/');
await page.getByTestId('preset-card').first().waitFor({ timeout: 15000 });
await page.getByTestId('preset-card').first().getByRole('button', { name: 'Play' }).click();
await expect(page.getByTestId('world-background')).toBeVisible();
const [resp] = await Promise.all([
page.waitForResponse(
(r) => r.request().method() === 'POST' && new URL(r.url()).pathname === '/api/games',
),
page
.getByTestId('nation-card-uk')
.getByRole('button', { name: 'Play as United Kingdom' })
.click(),
]);
const body = (await resp.json()) as { game: { id: string } };
return body.game.id;
}
/** Poll until `location.hash` equals `expected` (hash writes happen in effects). */
async function waitHash(page: Page, expected: string): Promise<void> {
await page.waitForFunction(
(exp) => window.location.hash === exp,
expected,
{ timeout: 15000 },
);
}
test.describe('History — URL deep-linking (#/game/<id>)', () => {
test('creating a game puts its id in the URL', async ({ page }) => {
test.setTimeout(60000);
const id = await createUkGame(page);
// The game screen mounts at turn 1; the URL-sync effect writes the deep link.
await expect(page.getByTestId('world-map')).toBeVisible();
await expect(page.getByTestId('turn-count')).toHaveText('1');
await expect(page.getByTestId('player-nation')).toHaveText('United Kingdom');
await waitHash(page, `#/game/${id}`);
});
test('a fresh page deep-links to the exact saved game', async ({ page, context }) => {
test.setTimeout(60000);
const id = await createUkGame(page);
await waitHash(page, `#/game/${id}`);
const origin = await page.evaluate(() => location.origin);
// A brand-new page navigated straight to the deep link must load that exact
// game (matching id, preset, and player) — the URL hash takes precedence over
// the (shared) localStorage, so this is deterministic.
const page2 = await context.newPage();
await page2.goto(`${origin}/#/game/${id}`);
await expect(page2.getByTestId('world-map')).toBeVisible();
await expect(page2.getByTestId('turn-count')).toHaveText('1');
await expect(page2.getByTestId('player-nation')).toHaveText('United Kingdom');
await waitHash(page2, `#/game/${id}`);
await page2.close();
});
test('a bad game id falls back to the home screen and clears the hash', async ({
page,
context,
}) => {
test.setTimeout(60000);
await page.goto('/');
const origin = await page.evaluate(() => location.origin);
// A fresh page navigated to a non-existent id must not crash: it lands on the
// home screen and the bad hash is cleared to `#/`.
const page2 = await context.newPage();
await page2.goto(`${origin}/#/game/does-not-exist-xyz`);
await expect(page2.getByTestId('preset-card').first()).toBeVisible({ timeout: 20000 });
await waitHash(page2, '#/');
await page2.close();
});
test('returning to home from a game clears the hash to #/', async ({ page }) => {
test.setTimeout(60000);
const id = await createUkGame(page);
await expect(page.getByTestId('world-map')).toBeVisible();
await waitHash(page, `#/game/${id}`);
// "← Scenarios" returns to the home screen; the URL-sync effect clears the hash.
await page.getByTestId('back-to-scenarios').click();
await expect(page.getByTestId('preset-card').first()).toBeVisible({ timeout: 15000 });
await waitHash(page, '#/');
});
});
/**
* HUD revamp (issues #4 and #5). The floating "Map" zoom window is gone — the
* full-bleed map is driven directly by wheel/trackpad + drag. The top bar is a
* *pinned* element: fixed, non-movable, centered at the top a few px down. The
* dossier / feed / action panels can each be docked into a full-height left or
* right pane (persisted in `localStorage`); the legend stays a small floating
* widget.
*/
test.describe('History — HUD revamp (pinned top bar, dockable panels, no Map window)', () => {
test('Map window is gone; top bar is pinned top-center; panels dock left/right', async ({
page,
}) => {
test.setTimeout(90000);
await createUkGame(page);
await expect(page.getByTestId('world-map')).toBeVisible();
await expect(page.getByTestId('turn-count')).toHaveText('1');
const vw = page.viewportSize()!.width;
const vh = page.viewportSize()!.height;
// --- #4: the "Map" zoom window is gone --------------------------------
// No zoom window element, and no zoom-in/zoom-out buttons anywhere on the
// game screen.
await expect(page.locator('[data-float-window="zoom"]')).toHaveCount(0);
await expect(page.getByTestId('zoom-in')).toHaveCount(0);
await expect(page.getByTestId('zoom-out')).toHaveCount(0);
// --- #5a: the top bar is pinned, centered at the top ------------------
const topBar = page.getByTestId('top-bar');
await expect(topBar).toBeVisible();
const barBox = (await topBar.boundingBox())!;
// Horizontally centered: x ≈ (viewportWidth − width) / 2 …
expect(Math.abs(barBox.x - (vw - barBox.width) / 2)).toBeLessThanOrEqual(3);
// …and a few px down from the top edge (y ≈ 8).
expect(barBox.y).toBeGreaterThanOrEqual(6);
expect(barBox.y).toBeLessThanOrEqual(10);
// A pointer-drag attempted on the pinned bar must not move it (it has no
// drag handlers; the map behind it never receives a mousedown).
await page.mouse.move(barBox.x + barBox.width / 2, barBox.y + barBox.height / 2);
await page.mouse.down();
await page.mouse.move(barBox.x + barBox.width / 2 + 60, barBox.y + barBox.height / 2 + 40, {
steps: 6,
});
await page.mouse.up();
const barBoxAfter = (await topBar.boundingBox())!;
expect(Math.abs(barBoxAfter.x - barBox.x)).toBeLessThanOrEqual(1);
expect(Math.abs(barBoxAfter.y - barBox.y)).toBeLessThanOrEqual(1);
// --- #5b: the dossier docks into a full-height left pane --------------
const dossier = page.getByTestId('panel-dossier');
await dossier.getByTestId('dock-left').click();
const dBox = (await dossier.boundingBox())!;
// Pinned to the left edge, filling the viewport height.
expect(dBox.x).toBeLessThanOrEqual(2);
expect(dBox.y).toBeLessThanOrEqual(2);
expect(Math.abs(dBox.height - vh)).toBeLessThanOrEqual(3);
expect(Math.abs(dBox.width - 300)).toBeLessThanOrEqual(3);
// --- #5b: the event feed docks into a full-height right pane ----------
const feed = page.getByTestId('panel-feed');
await feed.getByTestId('dock-right').click();
const fBox = (await feed.boundingBox())!;
// Pinned to the right edge: its right side sits on the viewport edge.
expect(Math.abs(fBox.x + fBox.width - vw)).toBeLessThanOrEqual(3);
expect(Math.abs(fBox.height - vh)).toBeLessThanOrEqual(3);
// The "Your move" deck is still a floating panel (we never docked it).
await expect(page.getByTestId('panel-action')).toBeVisible();
});
test('a dock choice survives a page reload (persisted in localStorage)', async ({
page,
}) => {
test.setTimeout(90000);
await createUkGame(page);
await expect(page.getByTestId('world-map')).toBeVisible();
const vh = page.viewportSize()!.height;
// Dock the dossier into the left pane.
const dossier = page.getByTestId('panel-dossier');
await dossier.getByTestId('dock-left').click();
const before = (await dossier.boundingBox())!;
expect(before.x).toBeLessThanOrEqual(2);
expect(Math.abs(before.height - vh)).toBeLessThanOrEqual(3);
// Reload: the persisted dock choice must restore the docked layout, and the
// deep link restores the game.
await page.reload();
await expect(page.getByTestId('world-map')).toBeVisible();
await expect(page.getByTestId('turn-count')).toHaveText('1', { timeout: 20000 });
const after = (await page.getByTestId('panel-dossier').boundingBox())!;
expect(after.x).toBeLessThanOrEqual(2);
expect(Math.abs(after.height - vh)).toBeLessThanOrEqual(3);
expect(Math.abs(after.width - 300)).toBeLessThanOrEqual(3);
});
});
/**
* Advisor "thinking" indicator (issue #15). Asking the advisor is a *separate*
* LLM call with its own `advisorBusy` flag — it must never block the turn flow.
* Under the deterministic stub the fetch resolves in milliseconds, so the
* transient thinking state is too short to assert mid-flight reliably. Instead
* we assert the *terminal* states, which are deterministic: before the fetch the
* button is enabled and the hint is absent; after it, the advisor list is
* populated (5 canned ideas), the hint is gone, the button is re-enabled, and
* the top bar is back to "Idle".
*/
test.describe('History — Advisor thinking indicator (#15)', () => {
test('asking the advisor populates the list and clears the busy state', async ({ page }) => {
test.setTimeout(90000);
await createUkGame(page);
await expect(page.getByTestId('world-map')).toBeVisible();
await expect(page.getByTestId('turn-count')).toHaveText('1');
// Open the Advisor tab.
await page.getByTestId('tab-advisor').click();
// Before any fetch: the button is enabled, no thinking hint, no results yet.
const ask = page.getByTestId('ask-advisor');
await expect(ask).toBeEnabled();
await expect(page.getByTestId('advisor-hint')).toHaveCount(0);
await expect(page.getByTestId('advisor-list')).toHaveCount(0);
// Ask the advisor (with an optional focus). The stub returns 5 canned ideas.
await page.getByTestId('advisor-prompt').fill('the nuclear standoff');
await ask.click();
// Terminal state: the result populates the advisor list.
await expect(page.getByTestId('advisor-list')).toBeVisible({ timeout: 20000 });
await expect(page.getByTestId('advisor-item')).toHaveCount(5, { timeout: 20000 });
// The fetch finished: the thinking hint is gone and the button is re-enabled.
await expect(page.getByTestId('advisor-hint')).toHaveCount(0);
await expect(ask).toBeEnabled();
// Nothing is in flight now, so the top bar reports idle (not the turn flow).
await expect(page.getByTestId('status-indicator')).toHaveText(/Idle/);
});
});
/**
* Remove a saved game (#20): a saved game can be deleted from the home screen
* (with a confirmation dialog), and loading a non-existent / deleted game id
* (directly or via a stale open tab) returns the user to the home screen.
*/
test.describe('History — remove a saved game & redirect (#20)', () => {
test('deleting a saved game from the home screen removes it (with confirmation)', async ({
page,
}) => {
test.setTimeout(90000);
const id = await createUkGame(page);
await expect(page.getByTestId('world-map')).toBeVisible();
// Back to the home screen, where the just-created game appears in "Saved games".
await page.getByTestId('back-to-scenarios').click();
await expect(page.getByTestId('saved-games')).toBeVisible({ timeout: 15000 });
const card = page.locator(`[data-game-id="${id}"]`);
await expect(card).toBeVisible();
// Opening the confirm dialog…
await card.getByTestId('delete-game').click();
const dialog = page.getByTestId('delete-game-confirm-dialog');
await expect(dialog).toBeVisible();
// …and cancelling leaves the game in place.
await page.getByTestId('delete-game-cancel').click();
await expect(dialog).toHaveCount(0);
await expect(card).toBeVisible();
// Confirming the delete removes it: the DELETE succeeds, the card disappears,
// and a subsequent fetch reports the game gone.
await card.getByTestId('delete-game').click();
await expect(page.getByTestId('delete-game-confirm-dialog')).toBeVisible();
const [resp] = await Promise.all([
page.waitForResponse(
(r) =>
r.request().method() === 'DELETE' &&
new URL(r.url()).pathname === `/api/games/${id}`,
),
page.getByTestId('delete-game-confirm').click(),
]);
expect((await resp.json()) as { deleted: boolean }).toEqual({ deleted: true });
await expect(page.getByTestId('delete-game-confirm-dialog')).toHaveCount(0);
await expect(card).toHaveCount(0);
// The game is gone from the server too.
const status = await page.evaluate(async (gid) => {
const r = await fetch(`/api/games/${gid}`);
return r.status;
}, id);
expect(status).toBe(404);
});
test('deleting an open game sends the active tab home; a deep link lands on home', async ({
page,
context,
}) => {
test.setTimeout(90000);
const id = await createUkGame(page);
await expect(page.getByTestId('world-map')).toBeVisible();
await expect(page.getByTestId('turn-count')).toHaveText('1');
const origin = await page.evaluate(() => location.origin);
// Delete the game straight through the API while its tab is open. The server
// broadcasts an SSE `error` and the client's useSse onError handler returns
// this live tab to the home screen.
const delStatus = await page.evaluate(
async (gid) => (await fetch(`/api/games/${gid}`, { method: 'DELETE' })).status,
id,
);
expect(delStatus).toBe(200);
await expect(page.getByTestId('preset-card').first()).toBeVisible({ timeout: 20000 });
await waitHash(page, '#/');
// A brand-new page deep-linking to the now-deleted id also lands on home.
const page2 = await context.newPage();
await page2.goto(`${origin}/#/game/${id}`);
await expect(page2.getByTestId('preset-card').first()).toBeVisible({ timeout: 20000 });
await waitHash(page2, '#/');
await page2.close();
});
});
+1
View File
@@ -30,6 +30,7 @@ export default tseslint.config(
'vitest.config.ts',
'playwright.config.ts',
'scripts/**/*.mjs',
'scripts/**/*.ts',
],
languageOptions: { globals: { ...globals.node, ...globals.es2022 } },
rules: {
+2462 -2
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+19 -1
View File
@@ -1,6 +1,6 @@
{
"name": "history",
"version": "0.1.0",
"version": "0.26.0",
"private": true,
"type": "module",
"description": "AI-driven alternate-history simulator — the LLM is the world engine (Pax Historia style).",
@@ -9,6 +9,15 @@
"build": "vite build && tsup server/index.ts --format esm --target node22 --out-dir server/dist --external better-sqlite3",
"start": "node server/dist/index.js",
"test": "vitest run",
"generate:regions": "node scripts/generate-regions.mjs",
"coarsen:regions": "node scripts/coarsen-regions.mjs",
"cleanup:regions": "node scripts/cleanup-regions.mjs",
"smooth:regions": "node scripts/smooth-regions.mjs",
"fill:regions": "node scripts/fill-gaps.mjs",
"split:regions": "node scripts/split-arkhangel.mjs",
"split:regions:band": "node scripts/split-arkhangel-band.mjs",
"build:region-keys": "node scripts/build-region-keys.mjs",
"build:region-adjacency": "node scripts/build-region-adjacency.mjs",
"typecheck": "tsc --noEmit",
"lint": "eslint .",
"e2e": "playwright test"
@@ -38,6 +47,15 @@
"@eslint/js": "^9.20.0",
"@playwright/test": "^1.62.1",
"@tailwindcss/vite": "^4.1.4",
"@turf/area": "^7.4.0",
"@turf/bbox": "^7.4.0",
"@turf/boolean-point-in-polygon": "^7.4.0",
"@turf/centroid": "^7.4.0",
"@turf/difference": "^7.4.0",
"@turf/distance": "^7.4.0",
"@turf/simplify": "^7.4.0",
"@turf/turf": "^7.4.0",
"@turf/union": "^7.4.0",
"@types/better-sqlite3": "^7.6.13",
"@types/express": "^4.17.25",
"@types/node": "^22.13.0",
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/**
* scripts/build-region-adjacency.mjs — build the precomputed region-adjacency
* manifest: `public/region-adjacency.json` = `{ "<regionKey>": ["<neighbourKey>", ...], ... }`.
*
* For every sub-region (region key, see `public/region-keys.json`) this records
* which *other* sub-regions it **borders** — i.e. shares an edge or a point with.
* The result is the data behind the model's `getNeighbours` tool (P2 of #16):
* given a set of region keys, the engine returns the union of their adjacency
* entries (excluding the queried keys), so the LLM can plan *frontier-biased,
* contiguous* territory transfers (a nation realistically gains/loses a region
* it already abuts) instead of whole countries.
*
* Method — bounding-box-pruned polygon intersection (turf is allowed in .mjs
* scripts; it is deliberately kept OUT of the TS typecheck program, see the
* v0.17 note). For each unordered pair of regions (i < j) we first do a cheap
* bbox-proximity reject with a small gap tolerance (adjacent regions' bboxes
* touch, so their gap is ≈0), and only for the survivors do we run
* `@turf/boolean-intersects`, which returns true exactly when the two
* (Multi)Polygons share at least one point (edge or corner touch, or overlap).
* A hit adds each key to the other's set — adjacency is recorded **symmetrically**
* and **deduplicated** (a neighbour appears once even if the pair shares several
* disjoint border segments).
*
* Output contract (asserted by scripts/region-adjacency.test.ts):
* - one entry for **every** region key (including regions with no bordering
* neighbours, e.g. isolated islands — their list is simply empty);
* - adjacency is symmetric (A ∈ B's list ⟺ B ∈ A's list);
* - no key lists itself.
*
* Deterministic + idempotent: the input files are fixed, the intersection test
* is a pure geometric computation, and the output is written with keys and
* neighbour lists both sorted — so a re-run rewrites a byte-identical file.
*
* Usage: `node scripts/build-region-adjacency.mjs` (or `npm run build:region-adjacency`).
*/
import { readFileSync, writeFileSync } from 'node:fs';
import path from 'node:path';
import { fileURLToPath } from 'node:url';
import bbox from '@turf/bbox';
import booleanIntersects from '@turf/boolean-intersects';
import { feature } from '@turf/helpers';
const here = path.dirname(fileURLToPath(import.meta.url));
const root = path.resolve(here, '..');
// "Close enough" bbox gap (degrees) for the cheap reject. Adjacent regions'
// bboxes touch (gap ≈ 0); a small tolerance absorbs 4-dp coordinate rounding
// and digitization fuzz. It only prunes work — it never affects correctness,
// because `booleanIntersects` is the final arbiter (a pair is a neighbour only
// if the polygons actually share a point).
const GAP_DEG = 0.05; // ≈ 5.5 km
// --- load the geo + region-key manifest (plain parse; keys join feature->key) --
const geo = JSON.parse(readFileSync(path.join(root, 'public', 'regions.geo.json'), 'utf8'));
const idToKey = JSON.parse(readFileSync(path.join(root, 'public', 'region-keys.json'), 'utf8'));
// Region records in stable file order, keyed by their region key.
const regions = [];
for (const f of geo.features ?? []) {
const id = f.id == null ? '' : String(f.id);
const key = idToKey[id];
if (!key) continue; // a geo feature with no manifest entry is skipped
regions.push({ key, feature: feature(f.geometry), bbox: bbox(f.geometry) });
}
if (regions.length === 0) {
throw new Error('no regions with valid region keys — check regions.geo.json / region-keys.json');
}
// bboxes are flat [minX, minY, maxX, maxY] (turf's BBox type).
function bboxesClose(a, b) {
return (
a[0] <= b[2] + GAP_DEG && // a.w <= b.e + gap
b[0] <= a[2] + GAP_DEG && // b.w <= a.e + gap
a[1] <= b[3] + GAP_DEG && // a.s <= b.n + gap
b[1] <= a[3] + GAP_DEG // b.s <= a.n + gap
);
}
// key -> set of neighbouring keys (deduped; a pair sharing several segments is
// recorded once).
const adj = new Map();
for (const r of regions) adj.set(r.key, new Set());
let pairChecks = 0;
let intersections = 0;
for (let i = 0; i < regions.length; i++) {
for (let j = i + 1; j < regions.length; j++) {
if (!bboxesClose(regions[i].bbox, regions[j].bbox)) continue; // cheap reject
pairChecks++;
let touches = false;
try {
touches = booleanIntersects(regions[i].feature, regions[j].feature);
} catch {
touches = false; // a degenerate geometry pair is treated as non-adjacent
}
if (touches) {
intersections++;
adj.get(regions[i].key).add(regions[j].key);
adj.get(regions[j].key).add(regions[i].key);
}
}
}
// --- write idempotently: keys sorted, neighbour lists sorted ------------------
// Every region key gets an entry (an isolated island's list is simply empty).
const manifest = {};
for (const key of [...adj.keys()].sort()) {
manifest[key] = [...adj.get(key)].sort();
}
// Self-reference guard (can't happen — we only ever add the *other* region — but
// assert it so a future regression is loud rather than silent).
for (const [k, list] of Object.entries(manifest)) {
if (list.includes(k)) throw new Error(`region ${k} lists itself as a neighbour`);
}
writeFileSync(path.join(root, 'public', 'region-adjacency.json'), JSON.stringify(manifest, null, 2) + '\n');
// --- summary ------------------------------------------------------------------
const totalEntries = Object.values(manifest).reduce((n, l) => n + l.length, 0);
const withNeighbours = Object.values(manifest).filter((l) => l.length > 0).length;
const maxDegree = Math.max(0, ...Object.values(manifest).map((l) => l.length));
console.log(
`[build-region-adjacency] wrote public/region-adjacency.json — ${Object.keys(manifest).length} region keys, ` +
`${totalEntries / 2} border pairs (${totalEntries} directed entries), max degree ${maxDegree}, ` +
`${withNeighbours} with ≥1 neighbour (${pairChecks} bbox-close pairs tested, ${intersections} intersect)`,
);
// A couple of human-checkable examples (highest-degree regions, stable order).
const byDegree = Object.entries(manifest).sort((a, b) => b[1].length - a[1].length || a[0].localeCompare(b[0]));
for (const [k, list] of byDegree.slice(0, 3)) {
console.log(` e.g. ${k} (deg ${list.length}) → ${list.slice(0, 4).join(', ')}${list.length > 4 ? ', …' : ''}`);
}
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/**
* scripts/build-region-keys.mjs — build the deterministic region-key manifest.
*
* Region ownership flips from whole-country (ISO_A3) to individual sub-region
* granularity, but the LLM and the persisted `Nation.territory` list need a
* *stable, human-readable, globally unique* identifier per sub-region. Raw
* feature ids (`FR-57`) are opaque to the model, so we mint a readable key of
* the form:
*
* <name-slug>-<4char> e.g. brittany-xk2a, western-alun
*
* where:
* - <name-slug> = properties.name → NFKD → strip combining marks → lowercase
* → a tiny fold table for the handful of letters NFKD does NOT decompose
* (ə ø ð đ œ ł, the only non-folding letters present in this dataset)
* → every non-alphanumeric run collapsed to a single '-' → leading/trailing
* '-' trimmed.
* - <4char> = a deterministic 4-letter lowercase code derived from the
* feature's stable id (FNV-1a 32-bit → 4 base-26 chars). It is stable
* (same id → same code on every run) because the key is persisted in
* SQLite and shown to the LLM. Within any name-slug group (e.g. the six
* regions all named "Western") the 4-char codes are made distinct by
* re-deriving with a deterministic salt on collision, which guarantees the
* full key is unique across all 1,800 regions.
*
* Output: `public/region-keys.json` — a `{ [stableFeatureId]: regionKey }`
* object, e.g. `{ "FR-57": "brittany-xk2a" }`, in file (stable) order. The map
* is looked up by the client (`WorldMap`) and the server (`map`/`presets`/
* `engine`) to join a sub-region's stable id to its readable key.
*
* Builtins only — deliberately NO `@turf`/geojson import (importing one pulls
* `@types/geojson` into the tsc program and breaks `WorldMap.tsx`; see the
* v0.17 changelog note). Reads the geo file with plain `JSON.parse`.
*
* Idempotent: a re-run rewrites a byte-identical file (no timestamps, no
* randomness, stable feature order, deterministic hash).
*
* Usage: `node scripts/build-region-keys.mjs` (or `npm run build:region-keys`).
*/
import { readFileSync, writeFileSync } from 'node:fs';
import path from 'node:path';
import { fileURLToPath } from 'node:url';
const here = path.dirname(fileURLToPath(import.meta.url));
const root = path.resolve(here, '..');
/**
* Letters present in the dataset that NFKD does NOT decompose, and their
* single/multi-letter ASCII equivalents, so their slugs aren't hyphen-soup.
* Kept deliberately tiny + deterministic (only the six that actually occur).
*/
const FOLD = {
'ə': 'a', // schwa
'ø': 'o', // o-stroke
'ð': 'd', // eth
'đ': 'dj', // d-stroke
'œ': 'oe', // oe ligature
'ł': 'l', // l-stroke
};
/**
* Readable slug from a region name. NFKD decomposes + we strip the combining
* marks, lowercase, fold the non-decomposing letters, collapse every other
* non-alphanumeric run to one hyphen, and trim leading/trailing hyphens.
*/
function slug(name) {
let s = name.normalize('NFKD').replace(/[\u0300-\u036f]/g, '');
s = s.toLowerCase();
s = [...s].map((ch) => FOLD[ch] ?? ch).join('');
s = s.replace(/[^a-z0-9]+/g, '-');
s = s.replace(/^-+|-+$/g, '');
return s;
}
/** FNV-1a 32-bit — a tiny, stable, pure string hash. */
function fnv1a32(str) {
let h = 0x811c9dc5;
for (let i = 0; i < str.length; i++) {
h ^= str.charCodeAt(i);
h = (h * 0x01000193) >>> 0;
}
return h >>> 0;
}
/** Spread a 32-bit hash across four lowercase letters (base 26 per byte). */
function code4(h) {
let out = '';
for (let i = 0; i < 4; i++) {
out += String.fromCharCode(97 + ((((h >>> (i * 8)) & 0xff) % 26)));
}
return out;
}
/** The 4-char code for an id, deterministically salted on within-group collision. */
function codeFor(id, used) {
let code = code4(fnv1a32(id));
let attempt = 0;
while (used.has(code)) {
attempt += 1;
code = code4(fnv1a32(`${id}#${attempt}`));
}
return code;
}
// --- load the region geo (plain parse; no geojson types) ---
const geoFile = path.join(root, 'public', 'regions.geo.json');
const geo = JSON.parse(readFileSync(geoFile, 'utf8'));
const features = Array.isArray(geo?.features) ? geo.features : [];
if (features.length !== 1800) {
throw new Error(`expected 1,800 regions, got ${features.length} — regions.geo.json changed; re-verify the region-key contract`);
}
// Group features by their (computed) name-slug, preserving file order, so the
// within-slug 4-char uniqueness resolution below is deterministic.
const groups = new Map(); // slug -> array of { id }
for (const f of features) {
const id = f.id == null ? '' : String(f.id);
const name = f.properties?.name;
if (!id || typeof name !== 'string') {
throw new Error(`region with id ${JSON.stringify(id)} has no usable name`);
}
const s = slug(name);
if (!groups.has(s)) groups.set(s, []);
groups.get(s).push({ id });
}
// Assign keys, resolving 4-char collisions within each slug group.
const manifest = {};
for (const [s, ids] of groups) {
const used = new Set();
for (const { id } of ids) {
manifest[id] = `${s}-${codeFor(id, used)}`;
used.add(manifest[id].slice(-4));
}
}
// --- hard assertions (the test re-checks these against the committed file) ---
const keys = Object.values(manifest);
if (new Set(keys).size !== keys.length) {
throw new Error(`region-key collision: ${keys.length} keys but only ${new Set(keys).size} unique`);
}
const KEY_RE = /^[a-z0-9]+(?:-[a-z0-9]+)*-[a-z]{4}$/;
for (const k of keys) {
if (!KEY_RE.test(k) || !k.includes('-')) {
throw new Error(`malformed region key: ${JSON.stringify(k)}`);
}
}
// --- write idempotently (stable order = insertion order = file order) ---
const out = JSON.stringify(manifest, null, 2) + '\n';
writeFileSync(path.join(root, 'public', 'region-keys.json'), out);
const western = Object.entries(manifest)
.filter(([, k]) => k.startsWith('western-'))
.sort((a, b) => a[0] < b[0] ? -1 : 1);
console.log(`[build-region-keys] wrote public/region-keys.json — ${keys.length} unique region keys (1,800 expected)`);
console.log(` western group: ${western.map(([id, k]) => `${id}=${k}`).join(', ')}`);
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#!/usr/bin/env node
/**
* scripts/cleanup-regions.mjs — removes the small holes left by coarsening.
*
* Run: npm run cleanup:regions (in place on public/regions.geo.json)
* node scripts/cleanup-regions.mjs [out] [src] [--bridge]
*
* The v0.14 coarsening produced a clean 1,796-region dataset, but small
* unfilled patches ("holes") remain inside regions — artifacts of the boolean
* dissolves and Natural Earth's own digitization. This fixes that in place,
* WITHOUT touching the dataset's contract (the region count, the `id`s, the
* `properties = { name, parent }`, the ~100 km floor and the island exemption
* are all preserved — only inner rings are dropped).
*
* ENCLOSED HOLES — every hole (inner ring) whose area is < HOLE_AREA_MAX_KM2
* is dropped, so the region fills in to be solid. Any larger hole (a genuine
* water body) is kept. NOTE: the big real lakes (Great Lakes, Caspian, Aral,
* Lake Superior, …) were already dissolved by the v0.14 coarsening, so they
* are not present as holes here; the only hole above the threshold in this
* dataset is a single medium one (~5,858 km2, kept). A 1,000 km2 threshold
* is comfortably above the 2,252 tiny artifact holes (all < 500 km2) and
* comfortably below any large real lake, so it fills exactly the artifacts.
*
* BRIDGING (opt-in, `--bridge`) — a MultiPolygon whose separate parts sit
* only a short distance apart (a thin gap across a strait, a nearby island)
* leaves a visible crack of background. This joins each such close pair with
* a small connector polygon and a boolean union, closing the crack while
* genuinely far parts (islands, separated territories) stay separate. It is
* OFF by default: the union itself can mint new (medium) holes, which is
* counter to the primary "fill holes" goal, so the default run is the
* clean, deterministic hole-fill only.
*
* Deterministic + idempotent: fixed threshold, deterministic planar geometry,
* 4-dp rounding. Re-running on an already-clean file rewrites the same file
* (no small holes remain to fill; the kept holes are above the threshold).
*/
import { readFileSync, writeFileSync } from 'node:fs';
import path from 'node:path';
import { fileURLToPath } from 'node:url';
import { union } from '@turf/union';
import { featureCollection } from '@turf/helpers';
const here = path.dirname(fileURLToPath(import.meta.url));
const root = path.resolve(here, '..');
const DEFAULT_FILE = path.join(root, 'public', 'regions.geo.json');
// positional args (out, src) plus named flags; keep the two orthogonal
const args = process.argv.slice(2).filter((a) => !a.startsWith('-'));
const flags = process.argv.slice(2).filter((a) => a.startsWith('-'));
const BRIDGE = flags.includes('--bridge');
const OUT = args[0] ? path.resolve(args[0]) : DEFAULT_FILE;
const SRC = args[1] ? path.resolve(args[1]) : DEFAULT_FILE;
// --- parameters ---------------------------------------------------------------
const HOLE_AREA_MAX_KM2 = 1000; // fill enclosed holes smaller than this (keep real lakes)
const BRIDGE_MAX_KM = 30; // bridge part-gaps smaller than this …
const BRIDGE_MIN_KM = 0.3; // … but only real gaps (a pair in (BRIDGE_MIN, BRIDGE_MAX))
const BRIDGE_EXT_KM = 2; // extend each bridge end into its part (ensures union overlap)
const BRIDGE_HW_MIN_KM = 2; // minimum half-width of a connector
const BRIDGE_HW_MAX_KM = 20; // cap so a connector never becomes a big blob
const R4 = 4; // coordinate precision (decimal places)
const SLIVER_EPS_KM2 = 1e-6; // drop only truly-degenerate (≈zero-area) parts
// --- area model (identical to coarsen-regions.mjs / regions.test.ts) -----------
const KM_LON = 111.32;
const KM_LAT = 110.574;
const rad = (deg) => (deg * Math.PI) / 180;
function ringAreaKm2(ring) {
let lat = 0;
for (const [, la] of ring) lat += la;
const kx = KM_LON * Math.cos(rad(ring.length ? lat / ring.length : 0));
let a = 0;
const n = ring.length;
for (let i = 0; i < n; i++) {
const [lon1, lat1] = ring[i];
const [lon2, lat2] = ring[(i + 1) % n];
a += lon1 * kx * (lat2 * KM_LAT) - lon2 * kx * (lat1 * KM_LAT);
}
return Math.abs(a / 2);
}
function geomAreaKm2(geom) {
if (!geom) return 0;
const polys = geom.type === 'Polygon' ? [geom.coordinates] : geom.coordinates;
let total = 0;
for (const poly of polys) total += ringAreaKm2(poly[0]);
return total;
}
// --- rounding / normalization (same conventions as coarsen-regions.mjs) --------
const rN = (v, N) => Math.round(v * 10 ** N) / 10 ** N;
function roundRing(ring, N = R4) {
const out = [];
for (const [x, y] of ring) {
const p = [rN(x, N), rN(y, N)];
const last = out[out.length - 1];
if (!last || last[0] !== p[0] || last[1] !== p[1]) out.push(p);
}
if (out.length > 1 && out[0][0] === out[out.length - 1][0] && out[0][1] === out[out.length - 1][1]) out.pop();
if (out.length < 3) return out;
return [...out, [...out[0]]];
}
function roundAll(geom) {
if (!geom || (geom.type !== 'Polygon' && geom.type !== 'MultiPolygon')) return null;
const polys = (geom.type === 'Polygon' ? [geom.coordinates] : geom.coordinates)
.map((poly) => poly.map((ring) => roundRing(ring)))
.filter((poly) => poly.length >= 1 && poly.every((r) => r.length >= 3));
if (!polys.length) return null;
if (polys.length === 1 && geom.type === 'Polygon') return { type: 'Polygon', coordinates: polys[0] };
return { type: 'MultiPolygon', coordinates: polys };
}
function normalizeGeom(geom) {
const rounded = roundAll(geom);
if (!rounded) return null;
const all = rounded.type === 'Polygon' ? [rounded.coordinates] : rounded.coordinates;
const kept = all.filter((poly) => ringAreaKm2(poly[0]) >= SLIVER_EPS_KM2);
const polys = kept.length ? kept : all;
if (polys.length === 1 && rounded.type === 'Polygon') return { type: 'Polygon', coordinates: polys[0] };
return { type: 'MultiPolygon', coordinates: polys };
}
// --- closest-point measurement (decimated planar point↔segment, ~km) ----------
function toXY(ring) {
let lat = 0;
for (const [, la] of ring) lat += la;
const kx = KM_LON * Math.cos(rad(ring.length ? lat / ring.length : 0));
return ring.map(([lon, lat]) => [lon * kx, lat * KM_LAT]);
}
function dec(pts, maxN = 200) {
if (pts.length <= maxN) return pts;
const step = Math.ceil(pts.length / maxN);
const out = [];
for (let i = 0; i < pts.length; i += step) out.push(pts[i]);
return out;
}
/**
* Closest point-pair between two planar rings: returns { d, p, q } with p on A,
* q on B and d = |p-q| in km (both on the decimated rings — a good-enough
* approximation for bridging; a tiny offset is corrected by the extension).
*/
function ringClosest(AX, BX) {
const A = dec(AX), B = dec(BX);
let best = Infinity, bestP = null, bestQ = null;
for (const p of A) {
for (let i = 0; i < B.length - 1; i++) {
const a = B[i], b = B[i + 1];
const dx = b[0] - a[0], dy = b[1] - a[1];
const l2 = dx * dx + dy * dy;
let t = l2 === 0 ? 0 : ((p[0] - a[0]) * dx + (p[1] - a[1]) * dy) / l2;
t = Math.max(0, Math.min(1, t));
const c = [a[0] + t * dx, a[1] + t * dy];
const dd = Math.hypot(p[0] - c[0], p[1] - c[1]);
if (dd < best) { best = dd; bestP = p; bestQ = c; }
}
}
for (const p of B) {
for (let i = 0; i < A.length - 1; i++) {
const a = A[i], b = A[i + 1];
const dx = b[0] - a[0], dy = b[1] - a[1];
const l2 = dx * dx + dy * dy;
let t = l2 === 0 ? 0 : ((p[0] - a[0]) * dx + (p[1] - a[1]) * dy) / l2;
t = Math.max(0, Math.min(1, t));
const c = [a[0] + t * dx, a[1] + t * dy];
const dd = Math.hypot(p[0] - c[0], p[1] - c[1]);
if (dd < best) { best = dd; bestP = c; bestQ = p; }
}
}
return { d: best, p: bestP, q: bestQ };
}
/**
* Build a thin connector (a quad in lon/lat) between two closest points p, q
* (both in planar km). The connector is extended a little into each part so the
* boolean union joins them, and its half-width is wide enough to span the local
* gap (capped so it never becomes a big blob).
*/
function makeBridgeRing(p, q) {
const gap = Math.hypot(q[0] - p[0], q[1] - p[1]);
if (gap < 1e-3) return null; // coincident → nothing to bridge
const midLat = (p[1] / KM_LAT + q[1] / KM_LAT) / 2;
const kx = KM_LON * Math.cos(rad(midLat));
const ux = (q[0] - p[0]) / gap, uy = (q[1] - p[1]) / gap; // unit p→q
const nx = -uy, ny = ux; // perpendicular
const hw = Math.min(BRIDGE_HW_MAX_KM, Math.max(BRIDGE_HW_MIN_KM, gap / 2));
const ext = BRIDGE_EXT_KM;
const pExt = [p[0] - ux * ext, p[1] - uy * ext];
const qExt = [q[0] + ux * ext, q[1] + uy * ext];
const toLL = ([x, y]) => [rN(x / kx, R4), rN(y / KM_LAT, R4)];
const c1 = toLL([pExt[0] + nx * hw, pExt[1] + ny * hw]);
const c2 = toLL([qExt[0] + nx * hw, qExt[1] + ny * hw]);
const c3 = toLL([qExt[0] - nx * hw, qExt[1] - ny * hw]);
const c4 = toLL([pExt[0] - nx * hw, pExt[1] - ny * hw]);
return [c1, c2, c3, c4, c1];
}
/** Bridge all close pairs of a MultiPolygon and union everything into one shape. */
function bridgeParts(geom) {
const parts = geom.coordinates;
const partsXY = parts.map((p) => toXY(p[0]));
const bridges = [];
let bridgedPairs = 0;
for (let i = 0; i < partsXY.length; i++) {
for (let j = i + 1; j < partsXY.length; j++) {
const { d, p, q } = ringClosest(partsXY[i], partsXY[j]);
if (d > BRIDGE_MIN_KM && d < BRIDGE_MAX_KM) {
const ring = makeBridgeRing(p, q);
if (ring) { bridges.push(ring); bridgedPairs++; }
}
}
}
if (!bridges.length) return { geom, bridgedPairs: 0, changed: false };
// union: original parts (as Polygons) + connector rings (as Polygons)
const feats = parts.map((poly) => ({ type: 'Feature', geometry: { type: 'Polygon', coordinates: poly } }));
for (const ring of bridges) feats.push({ type: 'Feature', geometry: { type: 'Polygon', coordinates: [ring] } });
let u;
try {
u = union(featureCollection(feats));
} catch (e) {
console.error(` [warn] bridge union failed: ${e.message}`);
return { geom, bridgedPairs: 0, changed: false };
}
const norm = u ? normalizeGeom(u.geometry) : null;
// Guard: a good bridge only adds a little area. Reject the union if it lost
// area (< 0.8×, a bad union that ate parts) or over-filled (> 1.3×, e.g. many
// overlapping bridges in a dense archipelago) — keep the original instead.
if (norm) {
const na = geomAreaKm2(norm);
const oa = geomAreaKm2(geom);
if (oa > 0 && (na < 0.8 * oa || na > 1.3 * oa)) {
return { geom, bridgedPairs: 0, changed: false };
}
}
return { geom: norm ?? geom, bridgedPairs, changed: true, bridgedParts: u ? (u.geometry.type === 'Polygon' ? 1 : u.geometry.coordinates.length) : parts.length };
}
// --- main ----------------------------------------------------------------------
function main() {
const t0 = Date.now();
const fc = JSON.parse(readFileSync(SRC, 'utf8'));
const inKB = (Buffer.byteLength(readFileSync(SRC)) / 1024).toFixed(0);
console.log(`input: ${fc.features.length} regions (${inKB} KB) from ${SRC}`);
console.log(`mode: holes <${HOLE_AREA_MAX_KM2} km2 filled, larger kept${BRIDGE ? `; + bridging part-gaps in (${BRIDGE_MIN_KM}, ${BRIDGE_MAX_KM}) km` : ''}`);
// diagnostics
let holesFilled = 0, holesFilledArea = 0, holesKept = 0, holesKeptArea = 0, featuresTouchedHole = 0;
let bridgedFeatures = 0, bridgedPairs = 0, partsBefore = 0, partsAfter = 0, areaBefore = 0, areaAfter = 0;
const bridgeSamples = [];
const keptHoleSamples = [];
const outFeatures = [];
for (const f of fc.features) {
let geom = f.geometry;
// ---- Opt-in: bridge close parts (additive connector + union) ----
if (BRIDGE && geom.type === 'MultiPolygon' && geom.coordinates.length >= 2) {
const before = { parts: geom.coordinates.length, area: geomAreaKm2(geom) };
const res = bridgeParts(geom);
if (res.changed) {
geom = res.geom;
bridgedFeatures++;
bridgedPairs += res.bridgedPairs;
partsBefore += before.parts;
partsAfter += geom.type === 'Polygon' ? 1 : geom.coordinates.length;
areaBefore += before.area;
areaAfter += geomAreaKm2(geom);
if (bridgeSamples.length < 20)
bridgeSamples.push(`${f.id} ${f.properties.name} (${f.properties.parent}): ${before.parts}p→${geom.type === 'Polygon' ? 1 : geom.coordinates.length}p, ${res.bridgedPairs} bridge(s), ${Math.round(before.area)}→${Math.round(geomAreaKm2(geom))} km2`);
}
}
// ---- Fill small enclosed holes: drop inner rings < threshold, keep larger ----
const isMulti = geom.type === 'MultiPolygon';
const polys = isMulti ? geom.coordinates : [geom.coordinates];
let touchedHole = false;
const newPolys = polys.map((poly) => {
const kept = [poly[0]]; // outer ring always kept
for (let i = 1; i < poly.length; i++) {
const area = ringAreaKm2(poly[i]);
if (area < 1e-6) continue; // degenerate — drop
if (area < HOLE_AREA_MAX_KM2) {
holesFilled++; holesFilledArea += area; touchedHole = true; // fill (drop)
} else {
holesKept++; holesKeptArea += area;
kept.push(poly[i]); // a genuine water body — keep the hole
if (keptHoleSamples.length < 20) keptHoleSamples.push(`${f.id}(${f.properties.parent}) ${Math.round(area)} km2`);
}
}
return kept;
});
if (touchedHole) featuresTouchedHole++;
const rebuilt = isMulti
? { type: 'MultiPolygon', coordinates: newPolys }
: { type: 'Polygon', coordinates: newPolys[0] };
// normalize (round 4dp, drop degenerate). NEVER drop a feature: if nothing
// usable survives (a degenerate 3-pt 0-area micro-dot), keep the
// hole-filled (rebuilt) geometry, else the untouched original.
const norm = normalizeGeom(rebuilt);
outFeatures.push({ type: 'Feature', id: f.id, properties: { name: f.properties.name, parent: f.properties.parent }, geometry: norm ?? rebuilt ?? geom });
}
const out = { type: 'FeatureCollection', features: outFeatures };
const json = JSON.stringify(out);
const outKB = (Buffer.byteLength(json) / 1024).toFixed(0);
writeFileSync(OUT, json + '\n');
console.log(`\n--- RESULTS ---`);
console.log(`regions: ${fc.features.length} → ${out.features.length} (should be unchanged)`);
console.log(`file: ${inKB} KB → ${outKB} KB (${(outKB / 1024).toFixed(2)} MB)`);
console.log(`\nENCLOSED HOLES:`);
console.log(` filled ${holesFilled} holes (${Math.round(holesFilledArea).toLocaleString('en-US')} km2) in ${featuresTouchedHole} features`);
console.log(` kept ${holesKept} hole(s) (${Math.round(holesKeptArea).toLocaleString('en-US')} km2) as real water`);
if (keptHoleSamples.length) console.log(` kept-hole list: ${keptHoleSamples.join(', ')}`);
if (BRIDGE) {
console.log(`\nBRIDGING (part-gaps):`);
console.log(` bridged ${bridgedFeatures} features (${bridgedPairs} close pairs): parts ${partsBefore} → ${partsAfter}, area ${Math.round(areaBefore).toLocaleString('en-US')} → ${Math.round(areaAfter).toLocaleString('en-US')} km2`);
for (const s of bridgeSamples) console.log(` ${s}`);
} else {
console.log(`\nbridging: skipped (pass --bridge to enable)`);
}
console.log(`\nwrote ${OUT}; elapsed ${((Date.now() - t0) / 1000).toFixed(1)}s`);
}
main();
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@@ -0,0 +1,612 @@
#!/usr/bin/env node
/**
* scripts/coarsen-regions.mjs — coarsens the committed `public/regions.geo.json`
* in place, so the map is genuinely coarser, not just finer-grained.
*
* Rule (per user request: "focus on joining cities to the region around it.
* Regions shouldn't be smaller than around 100x100km, excluding islands"):
*
* FLOOR — no region should be smaller than ~100×100 km = 10,000 km²,
* EXCEPT islands.
* ISLAND — a region is an island if it has NO same-country neighbor: no
* other region with the same `properties.parent` whose bounding box
* is within CLOSE_DEG (≈≤22 km) of its own. Small islands stay
* as-is regardless of size (Corsica, the Hawaiian counties,
* Okinawa, the Faroes, island micro-states, …).
* MERGE — a region that is small (area < FLOOR) AND not an island is
* merged into its NEAREST same-country neighbor (nearest by
* centroid distance; tie-break → larger area, then lexicographic
* id). Standalone cities (FR-75 Paris, the Latvian/Slovenian
* municipalities, the UK's 231 micro-districts) collapse into the
* region around them.
* DISSOLVE— the merge is a real boolean union (`@turf/union`, polygon-
* clipping): the shared boundary between the merged region and its
* host is removed, producing a single clean polygon — not two
* overlapping shapes. (Fallback if the union fails on a pair:
* combine the rings into a MultiPolygon without dissolving; the
* count of such fallbacks is reported.)
* ITERATE — passes run smallest-area-first (small regions merge into their
* neighbors, which grow and then absorb more). After each pass the
* area/neighbor/centroid metrics are recomputed; it stops at the
* fixed point (no small non-island region left) or at MAX_ITER.
* IDENTITY— the host (the region merged INTO) keeps its own `id` and
* `name`; the absorbed region's id is dropped. `properties.parent`
* is unchanged, so the map code (WorldMap/App/protocol/map.ts)
* keeps working untouched.
*
* Deterministic: fixed processing order (area, then id), deterministic
* neighbor choice (distance, then -area, then id), deterministic boolean
* union. Re-running on the coarsened file reaches the fixed point
* immediately and rewrites a byte-identical file.
*
* Area model: the SAME planar approximation the validation test uses
* (`scripts/regions.test.ts`) — `x = lon·111.32·cos(midLat)`,
* `y = lat·110.574` km, shoelace per OUTER ring (holes ignored), each ring at
* its own mean latitude — so the script's merge decisions and the test's
* assertions measure the same quantity.
*
* Longitude handling: every ring is unwrapped to a continuous [0,360)-derived
* space before its bbox/centroid is computed (the shortest-difference
* "np.unwrap" scheme), which makes the one full-360° antimeridian-wrapping
* feature (Antarctica's mainland ring) and any seam-straddling ring behave
* correctly; cross-feature longitude gaps use the 360°-cyclic minimum.
*
* Output: features sorted by (parent, id) (the same comparator as
* `scripts/generate-regions.mjs`), coordinates rounded to 4 decimal places,
* single line of JSON + trailing newline. If the file would exceed the
* ~5 MB guard, a light Douglas–Peucker pass (tolerances escalated through a
* small table) brings it under ~4 MB before writing.
*
* Run: `npm run coarsen:regions`
*/
import { readFileSync, writeFileSync } from 'node:fs';
import path from 'node:path';
import { fileURLToPath } from 'node:url';
import { union } from '@turf/union';
import { feature, featureCollection } from '@turf/helpers';
const here = path.dirname(fileURLToPath(import.meta.url));
const root = path.resolve(here, '..');
const FILE = path.join(root, 'public', 'regions.geo.json');
// --- parameters ---------------------------------------------------------------
const AREA_FLOOR_KM2 = 10_000; // ~100×100 km floor for non-island regions
const CLOSE_DEG = 0.2; // "spatially close" bbox gap (both lat and lon ≤ this; ≈≤22 km)
const MAX_ITER = 20; // safety cap on fixed-point passes (spec: ~15)
const SIZE_GUARD_KB = 5_120; // keep the committed file under ~5 MB
const SIZE_TARGET_KB = 4_096; // …and land under ~4 MB once simplified
const DP_STEPS = [0.05, 0.1, 0.2, 0.3, 0.5, 0.75, 1.0]; // Douglas–Peucker tolerances (degrees)
const R4 = 4; // coordinate precision (decimal places, ≈11 m)
const SLIVER_EPS_KM2 = 1e-6; // drop only truly-degenerate (≈zero-area) clipper slivers
// --- area model (identical to scripts/regions.test.ts) -------------------------
const KM_LON = 111.32;
const KM_LAT = 110.574;
const rad = (deg) => (deg * Math.PI) / 180;
/** Shoelace area (km²) of one ring, measured at the ring's own mean latitude. */
function ringAreaKm2(ring) {
let lat = 0;
for (const [, la] of ring) lat += la;
const kx = KM_LON * Math.cos(rad(ring.length ? lat / ring.length : 0));
let a = 0;
const n = ring.length;
for (let i = 0; i < n; i++) {
const [lon1, lat1] = ring[i];
const [lon2, lat2] = ring[(i + 1) % n];
a += lon1 * kx * (lat2 * KM_LAT) - lon2 * kx * (lat1 * KM_LAT);
}
return Math.abs(a / 2);
}
/** Sum of a geometry's outer-ring areas (holes are lakes — ignored by design). */
function geomAreaKm2(geom) {
if (!geom) return 0;
const polys = geom.type === 'Polygon' ? [geom.coordinates] : geom.coordinates;
let total = 0;
for (const poly of polys) total += ringAreaKm2(poly[0]);
return total;
}
// --- longitude unwrapping (antimeridian-safe) ----------------------------------
/**
* Unwrap a ring's longitudes to a continuous real line (the "np.unwrap"
* shortest-difference scheme, anchored at the first vertex's [0,360) value).
* Returns { lons, full } — `full` when the unwrapped span is ≥ 300°, i.e. the
* ring is a full-360° antimeridian band (Antarctica's mainland ring).
*/
function unwrapRing(ring) {
const n = ring.length;
const norm = (x) => ((x % 360) + 360) % 360; // → [0,360)
const u = new Array(n);
u[0] = norm(ring[0][0]);
for (let i = 1; i < n; i++) {
// The PREVIOUS unwrapped value may lie outside [0,360) (it accumulates),
// so normalize it back before measuring the difference; otherwise a bogus
// ~180° jump is inserted and the ring's span balloons to ~180°.
const a = norm(u[i - 1]);
const b = norm(ring[i][0]);
const d = (((b - a) % 360) + 540) % 360 - 180; // shortest signed diff in (-180, 180]
u[i] = u[i - 1] + d;
}
let min = Infinity;
let max = -Infinity;
for (const v of u) {
if (v < min) min = v;
if (v > max) max = v;
}
return { lons: u, full: max - min >= 300 };
}
/**
* Cyclic 1-D gap (degrees) between two tight longitude intervals in their own
* unwrapped [0,360)-derived spaces. Tries the three 360° shifts of `b` so
* different unwrap anchors reconcile; a `full` interval is close to everything.
*/
function lonGap(intA, intB) {
if (intA.full || intB.full) return 0;
let best = Infinity;
for (const k of [-1, 0, 1]) {
const a2 = intB.a + 360 * k;
const b2 = intB.b + 360 * k;
const gap = intA.b < a2 ? a2 - intA.b : b2 < intA.a ? intA.a - b2 : 0;
if (gap < best) best = gap;
}
return best;
}
// --- geometry helpers ----------------------------------------------------------
const rN = (v, N) => Math.round(v * 10 ** N) / 10 ** N;
/** Round a ring to 4 dp, drop consecutive duplicates, and (re-)close it. */
function roundRing(ring, N = R4) {
const out = [];
for (const [x, y] of ring) {
const p = [rN(x, N), rN(y, N)];
const last = out[out.length - 1];
if (!last || last[0] !== p[0] || last[1] !== p[1]) out.push(p);
}
if (
out.length > 1 &&
out[0][0] === out[out.length - 1][0] &&
out[0][1] === out[out.length - 1][1]
)
out.pop();
if (out.length < 3) return out; // degenerate; caller drops it
return [...out, [...out[0]]];
}
/**
* Round every ring of a geometry to 4 dp, drop degenerate rings (<3 pts) and
* empty polygons, keep the Polygon/MultiPolygon type (a single-part
* MultiPolygon collapses to Polygon). Returns null if nothing usable survived.
*/
function roundAll(geom) {
if (!geom || (geom.type !== 'Polygon' && geom.type !== 'MultiPolygon')) return null;
const polys = (geom.type === 'Polygon' ? [geom.coordinates] : geom.coordinates)
.map((poly) => poly.map((ring) => roundRing(ring)))
.filter((poly) => poly.length >= 1 && poly.every((r) => r.length >= 3));
if (!polys.length) return null;
if (polys.length === 1 && geom.type === 'Polygon') return { type: 'Polygon', coordinates: polys[0] };
return { type: 'MultiPolygon', coordinates: polys };
}
/**
* Normalize a union output (or fallback MultiPolygon): roundAll, then drop
* truly-degenerate (≈zero-area, < SLIVER_EPS_KM2) polygons the clipper can
* leave behind at shared boundaries. It never drops *every* part — a merge of
* two sub-resolution (zero-area) micro-regions must still collapse into one
* (degenerate) region rather than vanish. Returns null only when the input
* itself had no usable ring (e.g. `null`).
*/
function normalizeGeom(geom) {
const rounded = roundAll(geom);
if (!rounded) return null;
const all = rounded.type === 'Polygon' ? [rounded.coordinates] : rounded.coordinates;
const kept = all.filter((poly) => ringAreaKm2(poly[0]) >= SLIVER_EPS_KM2);
const polys = kept.length ? kept : all;
if (polys.length === 1 && rounded.type === 'Polygon') return { type: 'Polygon', coordinates: polys[0] };
return { type: 'MultiPolygon', coordinates: polys };
}
/** Douglas–Peucker of an OPEN point sequence (keeps endpoints). */
function dpOpen(pts, tol) {
if (pts.length < 3) return pts;
let maxD = 0;
let idx = 0;
const a = pts[0];
const b = pts[pts.length - 1];
for (let i = 1; i < pts.length - 1; i++) {
const dx = b[0] - a[0];
const dy = b[1] - a[1];
const l2 = dx * dx + dy * dy;
let t = l2 === 0 ? 0 : ((pts[i][0] - a[0]) * dx + (pts[i][1] - a[1]) * dy) / l2;
t = Math.max(0, Math.min(1, t));
const d = Math.hypot(pts[i][0] - (a[0] + t * dx), pts[i][1] - (a[1] + t * dy));
if (d > maxD) {
maxD = d;
idx = i;
}
}
if (maxD > tol) {
const left = dpOpen(pts.slice(0, idx + 1), tol);
const right = dpOpen(pts.slice(idx), tol);
return left.concat(right.slice(1));
}
return [a, b];
}
/** Douglas–Peucker a CLOSED ring at tolerance `tol` (0 = skip). */
function dpRing(ring, tol) {
if (tol <= 0 || ring.length < 4) return ring;
let pts = ring;
if (pts[0][0] === pts[pts.length - 1][0] && pts[0][1] === pts[pts.length - 1][1]) pts = pts.slice(0, -1);
const s = dpOpen(pts, tol);
if (s.length < 3) return ring;
return [...s, [...s[0]]];
}
/** Round (and optionally DP-simplify) every ring of a geometry. */
function transformGeom(geom, tol) {
const polys = (geom.type === 'Polygon' ? [geom.coordinates] : geom.coordinates)
.map((poly) => poly.map((ring) => roundRing(ring, R4)).map((ring) => (tol > 0 ? dpRing(ring, tol) : ring)))
.filter((poly) => poly.length >= 1 && poly.every((r) => r.length >= 3));
if (!polys.length) return null;
if (polys.length === 1 && geom.type === 'Polygon') return { type: 'Polygon', coordinates: polys[0] };
return { type: 'MultiPolygon', coordinates: polys };
}
// --- region record -------------------------------------------------------------
/**
* A region under management. `lonInt` is the tight longitude interval in
* [0,360)-derived unwrapped space (or `full` for a 360° band); `(clat, clon)`
* is the area-weighted centroid of the LARGEST outer ring (the region's
* "location"), unwrapped for its ring then wrapped to [-180,180) for
* cyclic-distance use.
*/
class Region {
constructor(f) {
this.id = f.id;
this.name = f.properties.name;
this.parent = f.properties.parent;
this.geom = f.geometry;
this.rawGeom = null; // last pre-normalization union output (safety net for build())
this.dead = false;
this.metrics();
}
metrics() {
this.area = geomAreaKm2(this.geom);
const polys = this.geom.type === 'Polygon' ? [this.geom.coordinates] : this.geom.coordinates;
let latMin = Infinity;
let latMax = -Infinity;
let lonA = Infinity;
let lonB = -Infinity;
let lonFull = false;
let bestRing = null;
let bestArea = -1;
for (const poly of polys) {
const outer = poly[0];
for (const [, la] of outer) {
if (la < latMin) latMin = la;
if (la > latMax) latMax = la;
}
const { lons, full } = unwrapRing(outer);
if (full) lonFull = true;
let a = Infinity;
let b = -Infinity;
for (const v of lons) {
if (v < a) a = v;
if (v > b) b = v;
}
lonA = Math.min(lonA, a);
lonB = Math.max(lonB, b);
const ar = ringAreaKm2(outer);
if (ar > bestArea) {
bestArea = ar;
bestRing = outer;
}
}
this.lonInt = { a: lonA, b: lonB, full: lonFull };
this.latMin = latMin;
this.latMax = latMax;
// area-weighted centroid of the largest outer ring, in unwrapped space
const { lons } = unwrapRing(bestRing);
const lats = bestRing.map((p) => p[1]);
const n = bestRing.length;
let A = 0;
let cx = 0;
let cy = 0;
for (let i = 0; i < n; i++) {
const x1 = lons[i];
const y1 = lats[i];
const x2 = lons[(i + 1) % n];
const y2 = lats[(i + 1) % n];
const f = x1 * y2 - x2 * y1;
A += f;
cx += (x1 + x2) * f;
cy += (y1 + y2) * f;
}
A /= 2;
if (Math.abs(A) > 1e-9) {
cx /= 6 * A;
cy /= 6 * A;
} else {
cx = (lonA + lonB) / 2;
cy = (latMin + latMax) / 2;
}
this.clon = (((cx + 180) % 360) + 360) % 360 - 180;
this.clat = cy;
}
/** Cyclic planar distance (km) to another region's centroid. */
distKm(o) {
let dlon = Math.abs(this.clon - o.clon) % 360;
if (dlon > 180) dlon = 360 - dlon;
const midLat = rad((this.clat + o.clat) / 2);
return Math.hypot(dlon * KM_LON * Math.cos(midLat), (this.clat - o.clat) * KM_LAT);
}
/** Bounding-box closeness to another same-space region (see CLOSE_DEG). */
closeTo(o) {
const latGap = this.latMax < o.latMin ? o.latMin - this.latMax : o.latMax < this.latMin ? this.latMin - o.latMax : 0;
if (latGap > CLOSE_DEG) return false;
return lonGap(this.lonInt, o.lonInt) <= CLOSE_DEG;
}
}
/**
* A "degenerate" region is a zero-area artifact: after 4-dp rounding its only
* ring has <3 distinct points (a line/point, e.g. a micro-municipality that
* v0.13's Douglas–Peucker collapsed to `[A, B, A]`). It contributes no area,
* so it can never be dissolved by the clipper (which returns null) nor kept
* through ring-dropping (which loses the 2-point ring). Merging one is purely
* an absorption: the host keeps its own geometry.
*/
const isDegenerate = (r) => r.area < SLIVER_EPS_KM2;
// --- main ----------------------------------------------------------------------
function main() {
const fc0 = JSON.parse(readFileSync(FILE, 'utf8'));
const regions = fc0.features.map((f) => new Region(f));
const byParent = new Map();
for (const r of regions) {
if (!byParent.has(r.parent)) byParent.set(r.parent, []);
byParent.get(r.parent).push(r);
}
const t0 = Date.now();
console.log(`input: ${fc0.features.length} regions across ${byParent.size} countries (${(Buffer.byteLength(readFileSync(FILE)) / 1024).toFixed(0)} KB)`);
console.log(`parameters: floor ${AREA_FLOOR_KM2.toLocaleString('en-US')} km2, close ${CLOSE_DEG} deg, max ${MAX_ITER} passes`);
const merges = []; // { from, fromName, fromArea, to, toName, toAreaAfter }
let fallbackUnions = 0;
// The fixed-point loop. Each pass: every region that is small AND has a
// close same-country neighbor merges into the nearest such neighbor
// (nearest by centroid distance; tie → larger area → lexicographic id).
for (let pass = 0; pass < MAX_ITER; pass++) {
let skippedIsland = 0;
let skippedGrew = 0;
const items = [];
for (const r of regions) {
if (r.dead || r.area >= AREA_FLOOR_KM2) continue;
const siblings = byParent.get(r.parent);
for (const s of siblings) {
if (s !== r && !s.dead && r.closeTo(s)) {
items.push(r);
break;
}
}
}
if (!items.length) {
console.log(`after pass ${pass}: fixed point reached (no small non-island regions left)`);
break;
}
items.sort((a, b) => (a.area !== b.area ? a.area - b.area : a.id < b.id ? -1 : 1));
let merged = 0;
for (const r of items) {
if (r.dead) continue;
if (r.area >= AREA_FLOOR_KM2) {
skippedGrew++;
continue; // absorbed a smaller region earlier this pass and crossed the floor
}
const siblings = byParent.get(r.parent);
// Close same-country neighbors as of NOW (mid-pass): some may have died
// earlier in this pass.
const close = [];
for (const s of siblings) if (s !== r && !s.dead && r.closeTo(s)) close.push(s);
if (!close.length) {
skippedIsland++;
continue; // lost its last close neighbor this pass → island now → exempt
}
// Prefer a REAL (non-degenerate) host so real regions dissolve cleanly;
// fall back to any close neighbor only when no real one is nearby.
const realCands = close.filter((s) => !isDegenerate(s));
const pool = realCands.length ? realCands : close;
let host = null;
for (const s of pool) {
if (
!host ||
r.distKm(s) < r.distKm(host) ||
(r.distKm(s) === r.distKm(host) &&
(s.area !== host.area ? s.area > host.area : s.id < host.id))
)
host = s;
}
if (isDegenerate(r)) {
// r is a zero-area artifact (line/point): it contributes no area, so the
// merge is a pure absorption — the host keeps its own geometry (a real
// host is untouched; if the host is also degenerate a cluster of dots
// collapses to one). Never route degenerate input through the clipper
// (returns null) or ring-dropping (would lose the 2-point ring the map
// already renders).
r.dead = true;
merged++;
merges.push({ from: r.id, fromName: r.name, fromArea: r.area, to: host.id, toName: host.name, toAreaAfter: host.area });
continue;
}
if (isDegenerate(host)) {
// r is real but the chosen host is a zero-area artifact: the host takes
// on r's geometry (keeping its own id/name). No clipper needed.
host.geom = r.geom;
host.rawGeom = r.geom;
host.metrics();
r.dead = true;
merged++;
merges.push({ from: r.id, fromName: r.name, fromArea: r.area, to: host.id, toName: host.name, toAreaAfter: host.area });
continue;
}
// Both real: dissolve via a boolean union; the host keeps its id/name
// and the item vanishes. @turf/union@7 dispatches through geomEach, which
// only understands a FeatureCollection / single Feature / bare geometry —
// a raw array of features has no `.type` and throws "Unknown Geometry
// Type". Wrap it.
let unionGeom = null;
let rawUnion = null;
try {
const u = union(featureCollection([feature(r.geom), feature(host.geom)]));
rawUnion = u ? u.geometry : null;
unionGeom = normalizeGeom(rawUnion);
} catch (err) {
console.error(` [warn] union failed for ${r.id} into ${host.id} (${err.message}); combining without dissolve`);
fallbackUnions++;
}
if (!unionGeom) {
// fallback: no dissolve — keep both shapes in one MultiPolygon
const polys = [...(r.geom.type === 'Polygon' ? [r.geom.coordinates] : r.geom.coordinates), ...(host.geom.type === 'Polygon' ? [host.geom.coordinates] : host.geom.coordinates)];
rawUnion = { type: 'MultiPolygon', coordinates: polys };
unionGeom = normalizeGeom(rawUnion);
if (!unionGeom) fallbackUnions++;
}
if (!unionGeom) {
console.error(` [error] could not merge ${r.id} into ${host.id}; leaving ${r.id} as-is`);
continue;
}
host.geom = unionGeom;
host.rawGeom = rawUnion;
host.metrics();
r.dead = true;
merged++;
merges.push({ from: r.id, fromName: r.name, fromArea: r.area, to: host.id, toName: host.name, toAreaAfter: host.area });
}
const alive = regions.filter((r) => !r.dead).length;
console.log(
`pass ${pass + 1}: ${items.length} small non-island region(s) → ${merged} merged` +
` (${skippedGrew} crossed the floor, ${skippedIsland} became island) → ${alive} regions remain`,
);
if (merged === 0) {
// items exist but nothing could merge (all became islands this pass) → stable
console.log(`pass ${pass + 1}: no merges possible — stable state`);
break;
}
}
// --- assemble output ----------------------------------------------------------
const alive = regions.filter((r) => !r.dead);
const sortById = (a, b) =>
a.parent !== b.parent ? (a.parent < b.parent ? -1 : 1) : a.id.localeCompare(b.id, 'en', { numeric: true });
alive.sort(sortById);
const build = (tol) => {
const feats = [];
for (const r of alive) {
// Never drop a region: if the simplified/normalized geometry degenerated,
// fall back to the raw (pre-normalization) union output, then to the
// untouched input geometry.
const g =
transformGeom(r.geom, tol) ??
(r.rawGeom ? transformGeom(r.rawGeom, 0) ?? r.rawGeom : r.geom);
feats.push({ type: 'Feature', id: r.id, properties: { name: r.name, parent: r.parent }, geometry: g });
}
return { type: 'FeatureCollection', features: feats };
};
let out = build(0);
let json = JSON.stringify(out);
let sizeKB = Buffer.byteLength(json) / 1024;
console.log(`\ncoarsened: ${fc0.features.length} → ${out.features.length} regions (${fc0.features.length - out.features.length} merged away)`);
let usedTol = 0;
if (sizeKB > SIZE_GUARD_KB) {
for (const t of DP_STEPS) {
out = build(t);
json = JSON.stringify(out);
sizeKB = Buffer.byteLength(json) / 1024;
usedTol = t;
console.log(`DP ${t}: ${sizeKB.toFixed(1)} KB`);
if (sizeKB < SIZE_TARGET_KB) break;
}
}
writeFileSync(FILE, json + '\n');
// --- summary -------------------------------------------------------------------
const areaOf = new Map();
const counts = new Map();
let maxA = 0;
let maxR = null;
for (const f of out.features) {
const a = geomAreaKm2(f.geometry);
areaOf.set(f.id, a);
counts.set(f.properties.parent, (counts.get(f.properties.parent) ?? 0) + 1);
if (a > maxA) {
maxA = a;
maxR = f;
}
}
const ccounts = [...counts.values()].sort((a, b) => a - b);
const median =
ccounts.length % 2 ? ccounts[(ccounts.length - 1) / 2] : (ccounts[ccounts.length / 2 - 1] + ccounts[ccounts.length / 2]) / 2;
const maxCountry = [...counts.entries()].sort((a, b) => b[1] - a[1])[0];
// islands = small regions with no close same-country neighbor in the FINAL set
const finalByParent = new Map();
for (const f of out.features) {
if (!finalByParent.has(f.properties.parent)) finalByParent.set(f.properties.parent, []);
finalByParent.get(f.properties.parent).push(f);
}
// rebuild final metrics (light: only need island flag on the < FLOOR set)
const finalRegions = out.features.map((f) => new Region(f));
const finalByParent2 = new Map();
for (const r of finalRegions) {
if (!finalByParent2.has(r.parent)) finalByParent2.set(r.parent, []);
finalByParent2.get(r.parent).push(r);
}
let smallIslands = 0;
let smallNonIslands = 0;
const islandSamples = [];
for (const r of finalRegions) {
if (r.area >= AREA_FLOOR_KM2) continue;
let hasNeighbor = false;
for (const s of finalByParent2.get(r.parent)) {
if (s !== r && r.closeTo(s)) {
hasNeighbor = true;
break;
}
}
if (hasNeighbor) smallNonIslands++;
else {
smallIslands++;
if (islandSamples.length < 12) islandSamples.push(`${r.id} ${r.name} (${Math.round(r.area)} km2)`);
}
}
console.log(`wrote ${FILE} — ${sizeKB.toFixed(1)} KB (${(sizeKB / 1024).toFixed(2)} MB)` + (usedTol ? ` [DP @ ${usedTol}°]` : ''));
console.log(`per-country count: min ${ccounts[0]} / median ${median} / max ${ccounts[ccounts.length - 1]} (max: ${maxCountry[0]})`);
console.log(`max region: ${maxR.id} (${maxR.properties.name}) ≈ ${Math.round(maxA).toLocaleString('en-US')} km2`);
console.log(`small (<${AREA_FLOOR_KM2.toLocaleString('en-US')} km2) in final set: ${smallIslands + smallNonIslands} — ${smallIslands} islands (exempt) / ${smallNonIslands} non-island residuals`);
if (islandSamples.length) console.log(`island samples: ${islandSamples.join(', ')}`);
console.log(`fallback (non-dissolved) unions: ${fallbackUnions}`);
console.log(`merge log (${merges.length} merges): first 15:`);
for (const m of merges.slice(0, 15)) {
console.log(` ${m.from} (${m.fromName}, ${Math.round(m.fromArea)} km2) → ${m.to} (${m.toName}, now ${Math.round(m.toAreaAfter)} km2)`);
}
const logPath = '/tmp/opencode/coarsen-log.txt';
writeFileSync(logPath, merges.map((m) => `${m.from}\t${m.fromName}\t${Math.round(m.fromArea)}\t${m.to}\t${m.toName}\t${Math.round(m.toAreaAfter)}`).join('\n') + '\n');
console.log(`full merge log → ${logPath}; elapsed ${((Date.now() - t0) / 1000).toFixed(1)}s`);
}
main();
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#!/usr/bin/env node
/**
* Fill "no-one's-land" gaps left in `public/regions.geo.json` by the v0.14 coarsening merge.
*
* For each country, the gap = (country landmass) − (union of the country's sub-regions):
* area inside the country's authoritative landmass that no sub-region covers. Each gap
* fragment is assigned to the **nearest** sub-region (centroid haversine distance) and
* appended to it as extra polygon part(s). A fragment is only added if:
*
* • it is not a sub-tiny sliver (≥ GAP_MIN_KM2),
* • it does not fall inside an existing region's *hole* (water) — this keeps the
* Aral-basin hole in KZ-KZY open,
* • it is not byte-identical to a part the file already contains (polyclip sometimes
* re-emits a region's own outer ring with a phantom sliver hole; once the hole is
* cleaned the piece equals the existing part, and appending it would only grow the
* file on every re-run),
* • it has been clipped against every region of *other* countries (and against pieces
* already appended this run) that touch its bbox, so it never overlaps an existing
* region — no new cross-border overlaps are introduced.
*
* Holes found in gap fragments are kept only when they are real: pre-existing region
* holes (matched by centroid) or enclaves of another country (e.g. Lesotho inside ZAF,
* so the ZAF fragment stays a ring and never covers the LSO region); every other hole
* is a polyclip phantom and is dropped.
*
* Standard GeoJSON (`{type, coordinates}`) throughout — the same shape the file and
* MapLibre already use, and what @turf v7 expects.
*
* Usage: node scripts/fill-gaps.mjs [inFile [outFile]]
* inFile default: public/regions.geo.json
* outFile default: inFile (edit in place)
* Env: GAP_MIN_KM2 (default 25) — gap fragments below this area are ignored slivers.
*
* Deterministic: same input → same output. Re-running on an already-filled file is a
* no-op (every re-discovered fragment is either a sub-threshold sliver, a phantom that
* byte-matches an existing part, or already covered by the enlarged union), so the
* result is idempotent.
*/
import fs from "node:fs";
import difference from "@turf/difference";
import union from "@turf/union";
import centroid from "@turf/centroid";
import bbox from "@turf/bbox";
import area from "@turf/area";
import booleanPointInPolygon from "@turf/boolean-point-in-polygon";
import distance from "@turf/distance";
import { feature, featureCollection, multiPolygon, polygon, point } from "@turf/helpers";
const GAP_MIN_KM2 = Number(process.env.GAP_MIN_KM2 ?? 25);
const RING_MIN_KM2 = 1e-4; // drop degenerate (numerical-noise) rings
// --------------------------------------------------------------------------- helpers
/**
* Round coordinates in place to 6 decimals (file convention). Accepts either a single
* ring (array of positions) or a polygon part (array of rings) and detects the depth.
*/
function roundCoords(coords) {
const isRing = Array.isArray(coords[0]) && Array.isArray(coords[0][0]) ? false : true;
const rings = isRing ? [coords] : coords;
for (const ring of rings) for (const c of ring) {
c[0] = Number(c[0].toFixed(6));
c[1] = Number(c[1].toFixed(6));
}
return coords;
}
/** Area (km²) of a closed ring, 0 when degenerate/NaN. */
function ringKm2(ring) {
if (!isValidRing(ring)) return 0;
try { return area(polygon([ring])) * 1e-6; } catch { return 0; }
}
/** A valid GeoJSON ring: ≥4 closed positions, each [finiteNumber, finiteNumber]. */
function isValidRing(ring) {
if (!Array.isArray(ring) || ring.length < 4) return false;
for (const c of ring) {
if (!Array.isArray(c) || c.length < 2) return false;
if (typeof c[0] !== "number" || !Number.isFinite(c[0])) return false;
if (typeof c[1] !== "number" || !Number.isFinite(c[1])) return false;
}
return true;
}
// Module-level refs populated in main before use (see keepHole).
let preHoleCentroids = []; // centroids of holes present in the input file (kept verbatim)
let otherLandmasses = []; // { iso, feature } for every country landmass
/**
* Is this hole a "real" one that must be preserved? Kept when it is a pre-existing
* region hole (centroid match, e.g. the Aral) or lies inside another country's
* landmass (enclave, e.g. Lesotho). Otherwise it is a polyclip phantom → dropped.
*/
function keepHole(hole, currentIso) {
const hKm2 = ringKm2(hole);
if (!(hKm2 >= RING_MIN_KM2)) return false; // degenerate / NaN
const cm = centroid(polygon([hole])).geometry.coordinates;
if (preHoleCentroids.some((p) => distance(cm, p) < 10)) return true;
if (otherLandmasses.some((l) => l.iso !== currentIso && booleanPointInPolygon(point(cm), l.feature))) return true;
return false;
}
/**
* Clean a GeoJSON polygon part (`[outerRing, ...holeRings]`): round coordinates, keep
* only real holes (see keepHole). Returns the cleaned part, or null if the outer ring
* is degenerate.
*/
function cleanPolygonPart(part, currentIso) {
if (!Array.isArray(part) || part.length === 0) return null;
const outer = part[0];
if (!isValidRing(outer)) return null;
const outerKm2 = ringKm2(outer);
if (!(outerKm2 >= RING_MIN_KM2)) return null; // covers NaN too
const holes = part.slice(1).filter((h) => isValidRing(h) && keepHole(h, currentIso));
roundCoords([outer, ...holes]);
return [outer, ...holes];
}
/** Split a geometry (Polygon|MultiPolygon) into cleaned polygon parts. */
function partsOf(geom, iso) {
if (!geom) return [];
const raw = geom.type === "MultiPolygon" ? geom.coordinates : [geom.coordinates];
const out = [];
for (const p of raw) { const c = cleanPolygonPart(p, iso); if (c) out.push(c); }
return out;
}
/** Rebuild a geometry (NOT a feature) from cleaned parts. */
function toGeometry(parts) {
// turf helpers return Features; take their .geometry ({type, coordinates}).
return parts.length > 1 ? multiPolygon(parts).geometry : polygon(parts[0]).geometry;
}
/** Bbox of a polygon part, as [west, south, east, north]. */
function partBBox(part) { return bbox(polygon(part)); }
function bBoxesOverlap(a, b) {
return !(a[2] < b[0] || a[0] > b[2] || a[3] < b[1] || a[1] > b[3]);
}
/** Sample points along a part's outer ring (start + every ~max(1, n/16)th vertex). */
function samplePoints(part, maxN = 16) {
const ring = part[0];
const n = ring.length;
if (n <= maxN) return ring;
const step = Math.ceil(n / maxN);
const out = [ring[0]];
for (let i = step; i < n; i += step) out.push(ring[i]);
return out;
}
// Module-level list of pre-existing region holes (water guard), built in main.
let holeRings = []; // { bbox, poly }
/** Does a gap piece overlap any pre-existing region hole (water)? */
function overlapsAnyHole(piece, pieceCm) {
const pBBox = partBBox(piece);
const candidates = holeRings.filter((h) => bBoxesOverlap(pBBox, h.bbox));
if (candidates.length === 0) return false;
const pts = [pieceCm, ...samplePoints(piece)];
return candidates.some((h) => pts.some((p) => booleanPointInPolygon(point(p), h.poly)));
}
// --------------------------------------------------------------------------- main
const inFile = process.argv[2] ?? "public/regions.geo.json";
const outFile = process.argv[3] ?? inFile;
const geo = JSON.parse(fs.readFileSync(inFile, "utf8"));
const countries = JSON.parse(fs.readFileSync(new URL("../public/countries.geo.json", import.meta.url), "utf8"));
otherLandmasses = countries.features.map((f) => ({ iso: f.id, feature: f }));
const features = geo.features;
const regionsByParent = new Map();
for (const f of features) {
const p = f.properties.parent;
if (!regionsByParent.has(p)) regionsByParent.set(p, []);
regionsByParent.get(p).push(f);
}
// Region inner-ring (hole) list for the water-hole guard; also the centroids of every
// pre-existing hole (so the hole policy never destroys one, e.g. KZ-KZY's Aral hole).
for (const f of features) {
const parts = f.geometry.type === "MultiPolygon" ? f.geometry.coordinates : [f.geometry.coordinates];
for (const p of parts) for (const h of p.slice(1)) {
if (Array.isArray(h) && h.length >= 4 && ringKm2(h) >= RING_MIN_KM2) {
const poly = polygon([h]);
holeRings.push({ bbox: bbox(poly), poly });
preHoleCentroids.push(centroid(poly).geometry.coordinates);
}
}
}
// Every part already in the input file (string key) — used to skip phantom pieces that
// re-emiss an existing part byte-for-byte.
const existingPartSet = new Set();
for (const f of features) {
const parts = f.geometry.type === "MultiPolygon" ? f.geometry.coordinates : [f.geometry.coordinates];
for (const p of parts) existingPartSet.add(JSON.stringify(p));
}
// All regions with bboxes, for cross-border clipping.
const allRegions = features.map((f) => ({
feature: f,
parent: f.properties.parent,
bbox: bbox(feature(f.geometry)),
}));
console.log(`input: ${inFile}`);
console.log(`regions: ${features.length} countries(with regions): ${regionsByParent.size} region holes: ${holeRings.length}`);
// Per-region running totals for the report.
const added = new Map(); // feature -> { km2, parts }
let totalSliverKm2 = 0, totalWaterKm2 = 0, totalFilledKm2 = 0, totalDupN = 0, totalClippedKm2 = 0, totalClipFailN = 0;
// Pieces already appended this run (any country) — later pieces clip against these so
// appended pieces never overlap each other either.
const appendedSoFar = []; // { parent, bbox, part }
for (const [iso, countryRegions] of regionsByParent) {
const landmass = countries.features.find((c) => c.id === iso);
if (!landmass) continue; // no authoritative landmass → nothing to fill against
const feats = countryRegions.map((r) => feature(r.geometry));
let unionGeom, diffGeom;
try {
// A country with a single sub-region has no union to compute: it IS the union.
unionGeom = countryRegions.length === 1
? countryRegions[0].geometry
: union(featureCollection(feats)).geometry;
diffGeom = difference(featureCollection([landmass, { ...landmass, geometry: unionGeom }])).geometry;
} catch (e) {
console.log(`${iso}\tSKIPPED (${unionGeom ? "difference" : "union"} failed: ${e.message})`);
continue;
}
if (!diffGeom) continue;
const rawPieces = partsOf(diffGeom, iso); // cleaned gap fragments inside the landmass
// Pass 1: filter (sliver / water / duplicate) and clip against foreign territory.
const fillable = [];
let sliverKm2 = 0, waterKm2 = 0, dupN = 0, clippedKm2 = 0, sliverN = 0, waterN = 0, clipFailN = 0;
for (const piece of rawPieces) {
const piecePoly = polygon(piece);
const aKm2 = area(piecePoly) * 1e-6;
if (aKm2 < GAP_MIN_KM2) { sliverKm2 += aKm2; sliverN++; continue; }
const pieceCm = centroid(piecePoly).geometry.coordinates;
if (overlapsAnyHole(piece, pieceCm)) { waterKm2 += aKm2; waterN++; continue; }
if (existingPartSet.has(JSON.stringify(piece))) { dupN++; continue; }
// Clip: remove any part of this piece that ANY existing region (own or foreign
// country) or an already-appended piece claims. Clipped *sequentially* against
// each touching target (more robust than one big union-difference): a target that
// fails to clip is skipped and counted, not allowed to abort the whole piece.
// Clipping against the country's OWN regions as well as foreign ones is what kills
// the same-country overlaps: the gap is `landmass − union(own regions)`, and
// polychip's difference can leave thin slivers of an own region inside that "gap";
// re-differencing each fragment against the individual regions (simpler operands
// than the big union) strips them out. Both operands are built as proper Features
// carrying a real geometry — never `feature()` on an already-Feature object (that
// double-wraps the geometry into the Feature itself and breaks polychip).
const pBBox = partBBox(piece);
const targets = [
...allRegions.filter((r) => bBoxesOverlap(r.bbox, pBBox)).map((r) => ({ feature: r.feature, bbox: r.bbox })),
...appendedSoFar.filter((a) => bBoxesOverlap(a.bbox, pBBox)).map((a) => ({ feature: polygon(a.part), bbox: a.bbox })),
];
if (targets.length === 0) {
fillable.push({ piece, aKm2, cm: pieceCm });
continue;
}
let cur = { type: "Feature", properties: {}, geometry: piecePoly.geometry };
let curBBox = pBBox;
let covered = false;
for (const t of targets) {
if (!bBoxesOverlap(curBBox, t.bbox)) continue;
let d;
try {
d = difference(featureCollection([cur, t.feature]));
} catch {
clipFailN++; // clip against this target failed: keep current (safe fallback)
continue;
}
if (!d || !d.geometry) { covered = true; break; } // piece fully covered by this target
cur = { type: "Feature", properties: {}, geometry: d.geometry };
curBBox = bbox(cur);
}
if (covered || !cur.geometry) { clippedKm2 += aKm2; continue; } // fully covered by foreign territory
const kept = [];
for (const cp of partsOf(cur.geometry, iso)) {
const cpArea = area(polygon(cp)) * 1e-6;
if (cpArea < GAP_MIN_KM2) { sliverKm2 += cpArea; sliverN++; continue; }
if (existingPartSet.has(JSON.stringify(cp))) { dupN++; continue; }
kept.push({ piece: cp, aKm2: cpArea, cm: centroid(polygon(cp)).geometry.coordinates });
}
clippedKm2 += Math.max(0, aKm2 - kept.reduce((s, k) => s + k.aKm2, 0));
fillable.push(...kept);
}
// Pass 2: nearest-region assignment and append.
const regionInfo = countryRegions.map((r) => {
const f = feature(r.geometry);
return { r, cm: centroid(f).geometry.coordinates, areaKm2: area(f) * 1e-6 };
});
let realKm2 = 0;
for (const { piece, aKm2, cm } of fillable) {
// Nearest region by centroid haversine distance; tie → larger area, then lexicographic id.
let best = null;
for (const info of regionInfo) {
const d = distance(cm, info.cm);
if (
best === null ||
d < best.d ||
(d === best.d && (info.areaKm2 > best.areaKm2 || (info.areaKm2 === best.areaKm2 && info.r.id < best.id)))
) best = { info, d };
}
if (!best) continue; // no regions at all (should not happen)
realKm2 += aKm2;
const target = best.info.r;
const parts = (target.geometry.type === "MultiPolygon" ? target.geometry.coordinates : [target.geometry.coordinates]).concat([piece]);
target.geometry = toGeometry(parts);
const a = added.get(target) ?? { km2: 0, parts: 0 };
a.km2 += aKm2; a.parts += 1;
added.set(target, a);
appendedSoFar.push({ parent: iso, bbox: partBBox(piece), part: piece });
}
totalSliverKm2 += sliverKm2;
totalWaterKm2 += waterKm2;
totalFilledKm2 += realKm2;
totalDupN += dupN;
totalClippedKm2 += clippedKm2;
totalClipFailN += clipFailN;
// Verify the fill for countries we actually changed: recompute the residual gap.
let afterKm2 = null;
if (realKm2 > 0) {
try {
const u2 = countryRegions.length === 1
? countryRegions[0].geometry
: union(featureCollection(countryRegions.map((r) => feature(r.geometry)))).geometry;
afterKm2 = area(difference(featureCollection([landmass, { ...landmass, geometry: u2 }]))) * 1e-6;
} catch { afterKm2 = null; }
}
console.log(
`${iso}\tregions=${countryRegions.length}\tgap-before=${(area(diffGeom) * 1e-6).toFixed(0)}` +
(afterKm2 === null ? "" : `\tgap-after=${afterKm2.toFixed(0)}`) +
`\tfilled=${realKm2.toFixed(0)}\tslivers=${sliverN}(${sliverKm2.toFixed(0)})\twater-skipped=${waterN}(${waterKm2.toFixed(0)})` +
`\tdup-skipped=${dupN}${clippedKm2 > 0 ? `\tforeign-overlap-removed=${clippedKm2.toFixed(0)}` : ""}${clipFailN > 0 ? `\tclip-failed=${clipFailN}` : ""}`,
);
}
const totalAddedKm2 = [...added.values()].reduce((s, a) => s + a.km2, 0);
const totalAddedParts = [...added.values()].reduce((s, a) => s + a.parts, 0);
console.log(`\nfilled ${totalAddedKm2.toFixed(0)} km² into ${added.size} regions (+${totalAddedParts} parts)`);
console.log(
`totals: filled=${totalFilledKm2.toFixed(0)} slivers-ignored=${totalSliverKm2.toFixed(0)} water-kept-open=${totalWaterKm2.toFixed(0)}` +
` duplicate-phantoms-skipped=${totalDupN} foreign-overlap-removed=${totalClippedKm2.toFixed(0)} clip-failed=${totalClipFailN}`,
);
fs.writeFileSync(outFile, JSON.stringify(geo));
console.log(`wrote ${outFile}`);
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#!/usr/bin/env node
/**
* scripts/generate-regions.mjs — dependency-free generator for `public/regions.geo.json`.
*
* Builds the sub-national region choropleth from REAL named administrative
* regions (Natural Earth admin-1: states, provinces, governorates, oblasts, …)
* instead of the old geometric grid the user rejected ("some stupid geometric
* grid" — it looked abstract, not like recognizable territories).
*
* Sources (both GeoJSON):
* (a) the Natural Earth admin-1 file — real, named sub-national boundaries.
* It is read from a NON-committed temp path (default /tmp/ne10m_admin1.geojson,
* override with the NE_ADMIN1 env var) so the repo only stores the derived
* output, not the 40 MB source. Natural Earth is public domain (CC0).
* (b) the committed `public/countries.geo.json` (177 countries) — the
* authoritative ISO_A3 set, the country names, and the whole-country
* geometries used as the fallback for any country with no admin-1 data.
*
* Output contract (UNCHANGED from the old generator, so `WorldMap.tsx`,
* `App.tsx`, `shared/protocol.ts` and `server/map.ts` all keep working —
* ownership is resolved via `properties.parent`, the parent country's ISO_A3):
* - a GeoJSON FeatureCollection
* - each feature: a unique top-level `id`, `properties = { name, parent }`
* (`parent` = the country ISO_A3 = the RegionMap key; `name` = the region's
* human name), and a Polygon/MultiPolygon geometry.
*
* For each country in `countries.geo.json` (in file order, deterministic):
* - if it has admin-1 sub-regions -> emit each as a feature, in the source
* file's order. Region `id` = its ISO 3166-2 code (e.g. `US-CA`, `FR-75`,
* `RU-MOW`) when present, else `<ISO_A3>-<nn>` (1-based index in file
* order). Because ISO 3166-2 codes are not always unique WITHIN a country
* (e.g. all nine of Bosnia's entities report `BA-BIH`), ids are
* disambiguated with a `-2/-3/…` suffix on collision (BA-BIH, BA-BIH-2, …).
* - if it has none (tiny / not covered by admin-1) -> emit ONE whole-country
* region: `id = <ISO_A3>-01`, `name` = the country's name, geometry = the
* country's geometry.
*
* Every coordinate is rounded to 4 decimal places (0.0001° ≈ 11 m). If the
* resulting file exceeds ~8 MB, a light Douglas–Peucker pass (0.05°, escalating
* through a small table if still too big) trims it under the guard while keeping
* shapes recognizable, and the before/after sizes are reported. Features are
* sorted by (parent, id). Fully deterministic: same inputs -> same bytes.
*
* Run: `npm run generate:regions`
*/
import { readFileSync, writeFileSync } from 'node:fs';
import path from 'node:path';
import { fileURLToPath } from 'node:url';
const here = path.dirname(fileURLToPath(import.meta.url));
const root = path.resolve(here, '..');
// --- parameters ----------------------------------------------------------------
const SIZE_GUARD_KB = 8192; // ~8 MB file-size guard (task spec)
const SIZE_TARGET_KB = 6144; // land under ~6 MB once simplified (margin under the guard)
const DP_STEPS = [0.05, 0.1, 0.2, 0.3, 0.5, 0.75, 1.0]; // Douglas–Peucker tolerances (degrees)
const R4 = 4; // base coordinate precision (decimal places, ≈11 m)
// Natural Earth admin-1 source (NON-committed temp file; override with NE_ADMIN1).
const INPUT = process.env.NE_ADMIN1 || '/tmp/ne10m_admin1.geojson';
// --- small geo helpers ---------------------------------------------------------
const rN = (v, N) => Math.round(v * Math.pow(10, N)) / Math.pow(10, N);
/** Round a ring to N decimals, drop consecutive duplicates, and close it. */
function roundRing(ring, N) {
const out = [];
for (const [x, y] of ring) {
const p = [rN(x, N), rN(y, N)];
const last = out[out.length - 1];
if (!last || last[0] !== p[0] || last[1] !== p[1]) out.push(p);
}
// drop a trailing point equal to the first (a redundant close), then re-close
if (
out.length > 1 &&
out[0][0] === out[out.length - 1][0] &&
out[0][1] === out[out.length - 1][1]
)
out.pop();
if (out.length < 3) return out; // degenerate; caller drops it
return [...out, [...out[0]]];
}
/** Perpendicular distance (degrees) from point p to the segment a→b. */
function perpDist(p, a, b) {
const dx = b[0] - a[0];
const dy = b[1] - a[1];
const l2 = dx * dx + dy * dy;
if (l2 === 0) return Math.hypot(p[0] - a[0], p[1] - a[1]);
let t = ((p[0] - a[0]) * dx + (p[1] - a[1]) * dy) / l2;
t = Math.max(0, Math.min(1, t));
return Math.hypot(p[0] - (a[0] + t * dx), p[1] - (a[1] + t * dy));
}
/** Douglas–Peucker simplification of an OPEN point sequence (keeps endpoints). */
function dpOpen(pts, tol) {
if (pts.length < 3) return pts;
let maxD = 0;
let idx = 0;
const a = pts[0];
const b = pts[pts.length - 1];
for (let i = 1; i < pts.length - 1; i++) {
const d = perpDist(pts[i], a, b);
if (d > maxD) {
maxD = d;
idx = i;
}
}
if (maxD > tol) {
const left = dpOpen(pts.slice(0, idx + 1), tol);
const right = dpOpen(pts.slice(idx), tol);
return left.concat(right.slice(1));
}
return [a, b];
}
/** Douglas–Peucker a CLOSED ring (first == last) at tolerance `tol` (0 = skip). */
function dpRing(ring, tol) {
if (tol <= 0 || ring.length < 3) return ring;
let pts = ring;
if (
pts[0][0] === pts[pts.length - 1][0] &&
pts[0][1] === pts[pts.length - 1][1]
)
pts = pts.slice(0, -1);
const simplified = dpOpen(pts, tol);
return [...simplified, [...simplified[0]]];
}
/** Round (and optionally simplify) every ring of a Polygon/MultiPolygon geometry. */
function transformGeom(geom, tol) {
const polys = geom.type === 'Polygon' ? [geom.coordinates] : geom.coordinates;
const out = polys
.map((poly) => poly.map((ring) => roundRing(ring, R4)).map((ring) => (tol > 0 ? dpRing(ring, tol) : ring)))
.filter((poly) => poly.length >= 1 && poly.every((ring) => ring.length >= 3));
if (!out.length) return geom; // nothing survived simplification — keep the rounded original
if (geom.type === 'Polygon') return { type: 'Polygon', coordinates: out[0] };
return { type: 'MultiPolygon', coordinates: out };
}
// --- main ----------------------------------------------------------------------
function main() {
const countries = JSON.parse(readFileSync(path.join(root, 'public', 'countries.geo.json'), 'utf8'));
const admin1 = JSON.parse(readFileSync(INPUT, 'utf8'));
const cset = new Set(countries.features.map((c) => c.id));
// Group admin-1 features by parent ISO_A3 (their `adm0_a3`), in file order,
// keeping only parents that are one of our 177 countries.
const byParent = new Map();
for (const f of admin1.features) {
const p = f.properties.adm0_a3;
if (typeof p === 'string' && cset.has(p)) {
if (!byParent.has(p)) byParent.set(p, []);
byParent.get(p).push(f);
}
}
// Build the base specs (raw geometry + unique id + name + parent) in
// countries.geo.json file order, then per-region source order — deterministic.
const specs = [];
const seenIds = new Set();
const nextId = (base) => {
let id = base;
let k = 1;
while (seenIds.has(id)) {
k += 1;
id = `${base}-${k}`;
}
seenIds.add(id);
return id;
};
let fallbackCount = 0;
const fallbackCountries = [];
for (const c of countries.features) {
const regs = byParent.get(c.id) ?? [];
if (regs.length) {
let nn = 0;
for (const r of regs) {
nn += 1;
const iso = r.properties.iso_3166_2;
const base = typeof iso === 'string' && iso ? iso : `${c.id}-${String(nn).padStart(2, '0')}`;
const name = typeof r.properties.name === 'string' && r.properties.name ? r.properties.name : c.properties.name;
specs.push({ id: nextId(base), name, parent: c.id, geom: r.geometry });
}
} else {
fallbackCount += 1;
fallbackCountries.push(c.id);
specs.push({ id: nextId(`${c.id}-01`), name: c.properties.name, parent: c.id, geom: c.geometry });
}
}
const sortById = (a, b) => (a.properties.parent !== b.properties.parent ? (a.properties.parent < b.properties.parent ? -1 : 1) : a.id.localeCompare(b.id, 'en', { numeric: true }));
const build = (tol) => {
const fc = {
type: 'FeatureCollection',
features: specs.map((s) => ({
type: 'Feature',
id: s.id,
properties: { name: s.name, parent: s.parent },
geometry: transformGeom(s.geom, tol),
})),
};
fc.features.sort(sortById);
return fc;
};
// Base: 4 decimal places, no simplification.
let fc = build(0);
let json = JSON.stringify(fc);
let sizeKB = Buffer.byteLength(json) / 1024;
console.log(`base (4dp, no DP): ${sizeKB.toFixed(1)} KB (${fc.features.length} features)`);
// File-size guard: if the base is over the guard, simplify until it is under
// the target (or we exhaust the tolerance table).
let usedTol = 0;
if (sizeKB > SIZE_GUARD_KB) {
for (const t of DP_STEPS) {
fc = build(t);
json = JSON.stringify(fc);
sizeKB = Buffer.byteLength(json) / 1024;
usedTol = t;
console.log(`DP ${t}: ${sizeKB.toFixed(1)} KB`);
if (sizeKB < SIZE_TARGET_KB) break;
}
}
writeFileSync(path.join(root, 'public', 'regions.geo.json'), json + '\n');
// --- summary ----------------------------------------------------------------
const counts = new Map();
for (const f of fc.features) counts.set(f.properties.parent, (counts.get(f.properties.parent) ?? 0) + 1);
const sortedCounts = [...counts.values()].sort((a, b) => a - b);
const median =
sortedCounts.length % 2
? sortedCounts[Math.floor(sortedCounts.length / 2)]
: (sortedCounts[sortedCounts.length / 2 - 1] + sortedCounts[sortedCounts.length / 2]) / 2;
const maxCountry = [...counts.entries()].sort((a, b) => b[1] - a[1])[0];
const maxCountryName = countries.features.find((c) => c.id === maxCountry[0])?.properties.name ?? '';
const finalKB = Buffer.byteLength(json) / 1024;
console.log(`\nwrote public/regions.geo.json — ${finalKB.toFixed(1)} KB (${(finalKB / 1024).toFixed(2)} MB)`);
console.log(`features: ${fc.features.length} total across ${counts.size} of ${countries.features.length} countries`);
console.log(`per-country count: min ${sortedCounts[0]} / median ${median} / max ${sortedCounts[sortedCounts.length - 1]}`);
console.log(`max-count country: ${maxCountry[0]} (${maxCountryName}) with ${maxCountry[1]}`);
if (usedTol) console.log(`simplification: Douglas–Peucker @ ${usedTol}° (base was ${SIZE_GUARD_KB}+ KB)`);
console.log(`whole-country fallback: ${fallbackCount} ${fallbackCount ? `(${fallbackCountries.join(', ')})` : '(none)'}`);
}
main();
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/**
* scripts/region-adjacency.test.ts — validation for the committed
* `public/region-adjacency.json` (built by `scripts/build-region-adjacency.mjs`).
*
* The manifest maps each region key to the list of region keys it **borders**
* (shares an edge/point with). It is the data behind the model's `getNeighbours`
* tool (v0.21, #16 P2), so it is a load-bearing data artifact — this test pins
* its contract.
*
* Deliberately dependency-free: it reads the JSON with plain `fs`/`JSON.parse`
* and never imports `@turf`/geojson types (importing one pulls `@types/geojson`
* into the tsc program and breaks `WorldMap.tsx`; see the v0.17 changelog note).
* Mirrors the style of `scripts/region-keys.test.ts`.
*/
import { readFileSync } from 'node:fs';
import path from 'node:path';
import { fileURLToPath } from 'node:url';
import { describe, expect, it } from 'vitest';
const here = path.dirname(fileURLToPath(import.meta.url));
const root = path.resolve(here, '..');
function readJson(rel: string): Record<string, unknown> {
return JSON.parse(readFileSync(path.join(root, rel), 'utf8'));
}
describe('region-adjacency.json', () => {
const adjacency = readJson('public/region-adjacency.json') as Record<string, string[]>;
const manifest = readJson('public/region-keys.json') as Record<string, string>;
const keys = new Set(Object.values(manifest));
it('has exactly one entry per region key (same key set as region-keys.json)', () => {
const manifestKeys = new Set(Object.values(manifest));
const adjacencyKeys = new Set(Object.keys(adjacency));
expect(adjacencyKeys).toEqual(manifestKeys);
expect(Object.keys(adjacency)).toHaveLength(keys.size);
expect(adjacencyKeys.size).toBe(1800);
});
it('every neighbour is itself a valid region key (referential integrity)', () => {
for (const [key, neighbours] of Object.entries(adjacency)) {
for (const n of neighbours) {
expect(keys.has(n), `neighbour ${n} of ${key} is not a valid region key`).toBe(true);
}
}
});
it('no region lists itself as a neighbour', () => {
for (const [key, neighbours] of Object.entries(adjacency)) {
expect(neighbours.includes(key), `${key} lists itself`).toBe(false);
}
});
it('adjacency is symmetric (A ∈ B ⟺ B ∈ A)', () => {
let checked = 0;
for (const [a, aList] of Object.entries(adjacency)) {
const aSet = new Set(aList);
for (const b of aList) {
const bList = adjacency[b];
expect(Array.isArray(bList), `${b} has no adjacency entry`).toBe(true);
// A lists B, so B must list A.
expect(bList!.includes(a), `${a} → ${b} but ${b} does not list ${a}`).toBe(true);
checked++;
}
// And the converse: every neighbour B of A must be a key (implied above) —
// also assert no *missing* reverse entry by checking the full set equality.
const bSet = new Set(aSet);
for (const b of aList) bSet.add(b);
// Symmetry means a's set equals the set of {b : a ∈ b}.
const reverse = Object.entries(adjacency)
.filter(([, list]) => list.includes(a))
.map(([k]) => k);
expect(new Set(reverse).size, `asymmetric degree for ${a}`).toBe(aList.length);
expect(new Set(aList).size).toBe(aSet.size); // no duplicate neighbours
}
expect(checked).toBeGreaterThan(0);
});
it('spot-checks known real bordering pairs', () => {
// Brazil ↔ Peru (Acre borders Loreto) — a real, unambiguous land border.
expect(adjacency['acre-ekzw']?.includes('loreto-ipkx')).toBe(true);
expect(adjacency['loreto-ipkx']?.includes('acre-ekzw')).toBe(true);
// France ↔ Germany (Moselle borders Baden-Württemberg) — another real border.
expect(adjacency['moselle-rygy']?.includes('baden-wurttemberg-oyje')).toBe(true);
expect(adjacency['baden-wurttemberg-oyje']?.includes('moselle-rygy')).toBe(true);
});
it("the #31 + #41 Arctic splits: New Earth isolated; Severnaya Zemlya, Pechora and Yamal adjacency", () => {
// v0.25 (#31) split RU-ARK into the mainland (arkhangel-sk-lhbk), the
// Franz Josef Land islets (new-earth-eikt) and the Severnaya Zemlya
// islets (severnaya-zemlya-awqp). New Earth sits ~100+ km from any land
// → a genuinely isolated island (empty list).
// v0.26 (#41) repartitioned the mainland: the 5 lat < 68 parts stay
// arkhangel-sk-lhbk, and the 28 lat ≥ 68 band parts became pechora-qwhs
// (the SW cell) and yamal-gosw (the NE cell). The Severnaya Zemlya
// islets' digitized rings touch the NE band part (now yamal-gosw), not
// the trimmed core, so SZ now borders Yamal (its former mainland contact
// moved to Yamal). The trimmed core keeps its real mainland neighbours
// but loses the SZ contact. Pechora (SW) borders the existing Nenets
// region to the south and Yamal to the north.
expect(adjacency['new-earth-eikt']).toEqual([]);
expect(adjacency['severnaya-zemlya-awqp']).toEqual(['yamal-gosw']);
expect(adjacency['pechora-qwhs']).toEqual(['nenets-qyga', 'yamal-gosw']);
expect(adjacency['yamal-gosw']).toEqual(['pechora-qwhs', 'severnaya-zemlya-awqp']);
// the trimmed core keeps its real neighbours (the band's SZ contact moved to Yamal)
expect(adjacency['arkhangel-sk-lhbk']).toEqual([
'karelia-ohem',
'kirov-gfvm',
'komi-eoeh',
'murmansk-etas',
'nenets-qyga',
'vologda-ynvr',
]);
});
});
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/**
* scripts/region-keys.test.ts — validation for the committed `public/region-keys.json`.
*
* The manifest maps each sub-region's **stable feature id** (from
* `public/regions.geo.json`) to a deterministic, human-readable, globally
* unique region key of the form `<name-slug>-<4char>` (built by
* `scripts/build-region-keys.mjs`). Region-level ownership (v0.19) keys both
* `Nation.territory` and the `RegionMap` on these keys, so the manifest is a
* load-bearing data artifact — this test pins its contract.
*
* Deliberately dependency-free: it reads both JSON files with plain
* `fs`/`JSON.parse` and never imports `@turf`/geojson types (importing one
* pulls `@types/geojson` into the tsc program and breaks `WorldMap.tsx`; see
* the v0.17 changelog note). Mirrors the style of `scripts/regions.test.ts`.
*/
import { readFileSync } from 'node:fs';
import path from 'node:path';
import { fileURLToPath } from 'node:url';
import { describe, expect, it } from 'vitest';
const here = path.dirname(fileURLToPath(import.meta.url));
const root = path.resolve(here, '..');
function readJson(rel: string): Record<string, unknown> {
return JSON.parse(readFileSync(path.join(root, rel), 'utf8'));
}
describe('region-keys.json', () => {
const manifest = readJson('public/region-keys.json') as Record<string, string>;
const geo = readJson('public/regions.geo.json') as {
features?: Array<{ id?: string | number }>;
};
const keys = Object.values(manifest);
const featureIds = (geo.features ?? []).map((f) => String(f.id));
it('has exactly 1,800 entries (one per region)', () => {
expect(Object.keys(manifest)).toHaveLength(1800);
});
it('has 1,800 unique keys (no collisions)', () => {
expect(new Set(keys).size).toBe(keys.length);
expect(new Set(keys).size).toBe(1800);
});
it('keys each end in -[a-z]{4} and contain at least one hyphen', () => {
const ending = /-[a-z]{4}$/;
for (const k of keys) {
expect(k, `key does not end in -[a-z]{4}: ${k}`).toMatch(ending);
expect(k, `key has no hyphen: ${k}`).toContain('-');
}
});
it("keeps RU-ARK's key stable across the #31 + #41 splits and mints the island and band keys", () => {
// v0.25 (#31) split RU-ARK into main + RU-ARK-NE + RU-ARK-SZ, and v0.26
// (#41) repartitioned the mainland into the core (RU-ARK) + RU-PEO +
// RU-YAM. The MAIN feature keeps its id (and therefore its key — FNV-1a
// of the id), which is what keeps existing Nation.territory / SQLite
// ownership valid; the new features get fresh keys derived the same way
// from their ids (no within-country name-collision salt needed — the
// slugs are unique).
expect(manifest['RU-ARK']).toBe('arkhangel-sk-lhbk'); // unchanged since v0.19
expect(manifest['RU-ARK-NE']).toBe('new-earth-eikt');
expect(manifest['RU-ARK-SZ']).toBe('severnaya-zemlya-awqp');
expect(manifest['RU-PEO']).toBe('pechora-qwhs');
expect(manifest['RU-YAM']).toBe('yamal-gosw');
});
it('is a stable join: its keys are exactly the regions.geo.json feature ids', () => {
// The manifest is looked up by feature id, so its key set must line up
// 1:1 with the geo file (catches drift if the geo is regenerated without
// rebuilding the keys).
expect(featureIds).toHaveLength(1800);
const manifestIds = Object.keys(manifest);
expect(new Set(manifestIds)).toEqual(new Set(featureIds));
});
});
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/**
* scripts/regions.test.ts — validation for the committed `public/regions.geo.json`.
*
* The dataset is REAL named sub-national administrative regions (Natural
* Earth admin-1: states, provinces, governorates, oblasts, …) that the
* coarsening step (`scripts/coarsen-regions.mjs`, v0.14) has merged down to a
* ~100×100 km (10,000 km²) floor: every small non-island region was dissolved
* into its nearest same-country neighbor, so the only regions left below the
* floor are islands (no same-country sibling nearby). One feature per named
* region, each carrying `properties = { name, parent }` where `parent` is the
* country's ISO_A3 (the RegionMap key the map resolves ownership through).
* Tiny or uncovered countries collapse to a single whole-country region
* (`<ISO_A3>-01`).
*
* v0.17 (`scripts/fill-gaps.mjs`) additionally fills the no-one's-land left
* between merged sub-regions: per country, the uncovered slivers of the
* country's landmass (≥ 25 km²) were added as extra parts of the nearest
* region, so the regions now cover the landmass almost completely (the
* sampling test below measures that per country).
*
* This test is self-contained (no import of the generator) and deliberately
* dependency-free — it re-implements the same planar area model the
* generator/analysis use, so the area-based assertions measure the same
* quantity:
*
* x = lon · 111.32 · cos(midLat), y = lat · 110.574 (km)
*
* with a shoelace per OUTER ring, each ring measured at its own mean latitude.
* Outer rings only — a region's inner rings (holes) are lakes and are ignored
* by design, the same way the coverage band already absorbed them.
*
* No geojson/@turf types are imported: the project keeps `@types/geojson`
* OUT of the tsc program (see tsconfig `types`) so maplibre-gl's d.ts stays
* in its loose (skipLibCheck) mode; the one coverage test below uses an
* inline even-odd ray cast instead of a geometry library.
*
* It reads each file exactly once and runs in O(total vertices).
*/
import { readFileSync } from 'node:fs';
import path from 'node:path';
import { fileURLToPath } from 'node:url';
import { describe, expect, it } from 'vitest';
const here = path.dirname(fileURLToPath(import.meta.url));
const root = path.resolve(here, '..');
// --- area model (planar approximation; matches scripts/generate-regions.mjs) --
const KM_LON = 111.32;
const KM_LAT = 110.574;
const rad = (deg: number) => (deg * Math.PI) / 180;
type Ring = [number, number][];
type Geometry =
| { type: 'Polygon'; coordinates: Ring[] }
| { type: 'MultiPolygon'; coordinates: Ring[][] };
function ringAreaKm2(ring: Ring, midLat: number): number {
const kx = KM_LON * Math.cos(rad(midLat));
let a = 0;
const n = ring.length;
for (let i = 0; i < n; i++) {
const [lon1, lat1] = ring[i];
const [lon2, lat2] = ring[(i + 1) % n];
a += lon1 * kx * (lat2 * KM_LAT) - lon2 * kx * (lat1 * KM_LAT);
}
return Math.abs(a / 2);
}
function outerRings(geom: Geometry): Ring[] {
if (geom.type === 'Polygon') return [geom.coordinates[0]];
if (geom.type === 'MultiPolygon') return geom.coordinates.map((p) => p[0]);
return [];
}
/** Sum of a feature's outer-ring areas, each ring at its own mean latitude. */
function featureAreaKm2(geom: Geometry): number {
let total = 0;
for (const ring of outerRings(geom)) {
let lat = 0;
for (const [, la] of ring) lat += la;
total += ringAreaKm2(ring, ring.length ? lat / ring.length : 0);
}
return total;
}
function median(nums: number[]): number {
if (!nums.length) return 0;
const s = [...nums].sort((a, b) => a - b);
const m = Math.floor(s.length / 2);
return s.length % 2 ? s[m] : (s[m - 1] + s[m]) / 2;
}
/** Raw min/max bbox [w, s, e, n] of a geometry (all coordinates). */
function rawBBox(geom: Geometry): [number, number, number, number] {
const polys = geom.type === 'Polygon' ? [geom.coordinates] : geom.coordinates;
let w = Infinity, s = Infinity, e = -Infinity, n = -Infinity;
for (const poly of polys)
for (const ring of poly)
for (const [lo, la] of ring) {
if (lo < w) w = lo;
if (lo > e) e = lo;
if (la < s) s = la;
if (la > n) n = la;
}
return [w, s, e, n];
}
/**
* Even-odd ray cast: is `[lon, lat]` inside `ring`? Planar, in raw lon/lat
* space (no antimeridian handling — the polygons and the sample points live
* in the same unwrapped space, so containment is mathematically consistent
* even for countries that cross the date line). Used only as a fast,
* deterministic coverage proxy (see the sampling test), never for areas.
*/
function pointInRing(pt: [number, number], ring: Ring): boolean {
const [x, y] = pt;
let inside = false;
for (let i = 0, j = ring.length - 1; i < ring.length; j = i++) {
const [xi, yi] = ring[i];
const [xj, yj] = ring[j];
if (yi > y !== yj > y && x < ((xj - xi) * (y - yi)) / (yj - yi) + xi) inside = !inside;
}
return inside;
}
/** Is a point inside a (Multi)Polygon: inside the outer ring, outside all holes. */
function pointInGeom(pt: [number, number], geom: Geometry): boolean {
if (geom.type === 'Polygon') {
if (!pointInRing(pt, geom.coordinates[0])) return false;
return geom.coordinates.slice(1).every((h) => !pointInRing(pt, h));
}
if (geom.type === 'MultiPolygon')
return geom.coordinates.some((p) => pointInGeom(pt, { type: 'Polygon', coordinates: p }));
return false;
}
// ------------------------------------------------------------------------------
interface RegionFeature {
type: 'Feature';
id: string;
properties: { name: string; parent: string };
geometry: Geometry;
}
interface CountryFeature {
type: 'Feature';
id: string;
properties: { name: string };
geometry: Geometry;
}
// Read each file exactly once.
const regions = JSON.parse(
readFileSync(path.join(root, 'public', 'regions.geo.json'), 'utf8'),
) as { type: 'FeatureCollection'; features: RegionFeature[] };
const countries = JSON.parse(
readFileSync(path.join(root, 'public', 'countries.geo.json'), 'utf8'),
) as { type: 'FeatureCollection'; features: CountryFeature[] };
// Precompute once (O(total vertices)).
const countryIds = new Set(countries.features.map((c) => c.id));
const countryArea = new Map<string, number>();
for (const c of countries.features) countryArea.set(c.id, featureAreaKm2(c.geometry));
const regionArea = new Map<string, number>();
for (const f of regions.features) regionArea.set(f.id, featureAreaKm2(f.geometry));
const sumByParent = new Map<string, number>();
for (const f of regions.features)
sumByParent.set(f.properties.parent, (sumByParent.get(f.properties.parent) ?? 0) + (regionArea.get(f.id) ?? 0));
const countByParent = new Map<string, number>();
for (const f of regions.features)
countByParent.set(f.properties.parent, (countByParent.get(f.properties.parent) ?? 0) + 1);
// Raw bboxes for the sampling test's cheap reject (O(total vertices)).
const regionBB = new Map<string, [number, number, number, number]>();
for (const f of regions.features) regionBB.set(f.id, rawBBox(f.geometry));
// --- island/close-neighbor helpers (mirror scripts/coarsen-regions.mjs) ------
interface LonInt {
a: number;
b: number;
full: boolean;
}
interface RegionBBox {
latMin: number;
latMax: number;
lon: LonInt;
}
const COARSE_FLOOR_KM2 = 10_000; // the coarsener's ~100×100 km floor
const CLOSE_DEG = 0.2; // "spatially close" bbox gap (both lat and lon ≤ this)
/**
* Unwrap a ring's longitudes to a continuous line (np.unwrap shortest-diff
* scheme, anchored at the first vertex's [0,360) value). `full` when the
* unwrapped span is ≥ 300° (a full-360° antimeridian band, e.g. Antarctica).
* Must stay in sync with the coarsening script.
*/
function unwrapRing(ring: Ring) {
const n = ring.length;
const norm = (x: number) => ((x % 360) + 360) % 360;
const u: number[] = new Array(n);
u[0] = norm(ring[0][0]);
for (let i = 1; i < n; i++) {
// the previous UNWRAPPED value may lie outside [0,360); normalize it
// before measuring the shortest signed difference, or a bogus ~180° jump
// is inserted and the ring's span balloons.
const a = norm(u[i - 1]);
const b = norm(ring[i][0]);
const d = (((b - a) % 360) + 540) % 360 - 180;
u[i] = u[i - 1] + d;
}
let min = Infinity;
let max = -Infinity;
for (const v of u) {
if (v < min) min = v;
if (v > max) max = v;
}
return { lons: u, full: max - min >= 300 };
}
/**
* Cyclic 1-D gap (degrees) between two tight longitude intervals in their own
* unwrapped spaces; a `full` interval is close to everything.
*/
function lonGap(intA: LonInt, intB: LonInt): number {
if (intA.full || intB.full) return 0;
let best = Infinity;
for (const k of [-1, 0, 1]) {
const a2 = intB.a + 360 * k;
const b2 = intB.b + 360 * k;
const gap = intA.b < a2 ? a2 - intA.b : b2 < intA.a ? intA.a - b2 : 0;
if (gap < best) best = gap;
}
return best;
}
// Per-region bbox in antimeridian-safe unwrapped longitude space.
const regionBBox = new Map<string, RegionBBox>();
for (const f of regions.features) {
const polys = f.geometry.type === 'Polygon' ? [f.geometry.coordinates] : f.geometry.coordinates;
let latMin = Infinity;
let latMax = -Infinity;
let a = Infinity;
let b = -Infinity;
let full = false;
for (const poly of polys) {
const outer = poly[0];
for (const [, la] of outer) {
if (la < latMin) latMin = la;
if (la > latMax) latMax = la;
}
const { lons, full: fl } = unwrapRing(outer);
if (fl) full = true;
for (const v of lons) {
if (v < a) a = v;
if (v > b) b = v;
}
}
regionBBox.set(f.id, { latMin, latMax, lon: { a, b, full } });
}
/** Bounding-box closeness (same definition the coarsening script uses). */
function bboxesClose(x: RegionBBox, y: RegionBBox): boolean {
const latGap = x.latMax < y.latMin ? y.latMin - x.latMax : y.latMax < x.latMin ? x.latMin - y.latMax : 0;
if (latGap > CLOSE_DEG) return false;
return lonGap(x.lon, y.lon) <= CLOSE_DEG;
}
describe('regions.geo.json', () => {
it('is a valid GeoJSON FeatureCollection of well-formed features', () => {
expect(regions.type).toBe('FeatureCollection');
expect(Array.isArray(regions.features)).toBe(true);
expect(regions.features.length).toBeGreaterThan(0);
for (const f of regions.features) {
expect(f.type, `${f.id ?? '?'}: not a Feature`).toBe('Feature');
expect(typeof f.id, `${f.id ?? '?'}: id must be a string`).toBe('string');
expect(f.id.length, `${f.id ?? '?'}: empty id`).toBeGreaterThan(0);
expect(typeof f.properties?.name, `${f.id}: missing name`).toBe('string');
expect(f.properties.name.length, `${f.id}: empty name`).toBeGreaterThan(0);
expect(typeof f.properties.parent, `${f.id}: missing parent`).toBe('string');
expect(countryIds.has(f.properties.parent), `${f.id}: unknown parent ${f.properties.parent}`).toBe(true);
const g = f.geometry;
expect(
!!g && (g.type === 'Polygon' || g.type === 'MultiPolygon'),
`${f.id}: bad geometry type ${g?.type}`,
).toBe(true);
if (g) {
const polys = g.type === 'Polygon' ? [g.coordinates] : g.coordinates;
for (const poly of polys)
for (const ring of poly)
expect(ring.length, `${f.id}: ring with ${ring.length} pts`).toBeGreaterThanOrEqual(3);
}
}
});
it('has globally unique feature ids (ISO 3166-2 disambiguated on within-country collision)', () => {
const seen = new Set<string>();
const dups = new Set<string>();
for (const f of regions.features) {
if (seen.has(f.id)) dups.add(f.id);
seen.add(f.id);
}
expect(
dups.size,
`duplicate ids: ${[...dups].slice(0, 10).join(', ')}`,
).toBe(0);
expect(seen.size).toBe(regions.features.length);
});
it('covers every one of the 177 countries with at least one region', () => {
const counts = countries.features.map((c) => countByParent.get(c.id) ?? 0);
for (const c of countries.features) {
expect(countByParent.get(c.id) ?? 0, `country ${c.id} has no regions`).toBeGreaterThanOrEqual(1);
}
const min = Math.min(...counts);
const max = Math.max(...counts);
const med = median(counts);
const maxCountry = [...countByParent.entries()].sort((a, b) => b[1] - a[1])[0];
const maxCountryName = countries.features.find((c) => c.id === maxCountry[0])?.properties.name ?? '';
console.log(
`\n per-country region count: min ${min} / median ${med} / max ${max}` +
` (max: ${maxCountry[0]} ${maxCountryName} with ${maxCountry[1]})`,
);
});
it('has sane region areas: median >= 100 km2, and no non-Antarctica region >= 5,000,000 km2', () => {
const areas = regions.features.map((f) => regionArea.get(f.id) ?? 0);
const med = median(areas);
const maxRegion = regions.features.reduce((m, f) => ((regionArea.get(f.id) ?? 0) > (regionArea.get(m.id) ?? 0) ? f : m));
const minRegion = regions.features.reduce((m, f) => ((regionArea.get(f.id) ?? 0) < (regionArea.get(m.id) ?? 0) ? f : m));
const tiny = areas.filter((a) => a < 1).length;
// Antarctica (ATA) is a full-360° wrap ring, so the planar model can't
// measure it (it reports ~21.8M km2 for a ~14M km2 landmass) — exempt it.
for (const f of regions.features) {
if (f.properties.parent === 'ATA') continue;
const a = regionArea.get(f.id) ?? 0;
expect(a < 5_000_000, `${f.id}: area ${Math.round(a).toLocaleString('en-US')} km2 is absurdly large`).toBe(true);
}
expect(med, `median region area ${med.toFixed(1)} km2 is too small`).toBeGreaterThanOrEqual(100);
console.log(
`\n region area: min ${minRegion.id} (${minRegion.properties.name}) ≈ ${(regionArea.get(minRegion.id) ?? 0).toExponential(2)} km2` +
` / median ${med.toLocaleString('en-US')} km2` +
` / max ${maxRegion.id} (${maxRegion.properties.name}) ≈ ${Math.round(regionArea.get(maxRegion.id) ?? 0).toLocaleString('en-US')} km2` +
` — ${tiny} regions < 1 km2 (legit micro-regions: tiny islands, small urban districts, degenerate disputed enclaves)`,
);
});
it('leaves only islands below the ~10,000 km2 coarsening floor (non-island small regions merged)', () => {
// v0.14 coarsening: every region smaller than the floor that has a
// same-country sibling within CLOSE_DEG of its bbox is dissolved into its
// nearest such neighbor, so a below-floor region may only survive if it
// is an island. Count the non-island residuals below the floor and allow
// a small tolerance band (strictly < 1% of all regions) — the coarsener's
// fixed point leaves none, and this catches a regression in the merge
// logic (e.g. a broken neighbor test that exempts land regions) without
// being brittle to one or two borderline cases.
const smallNonIslands: string[] = [];
let smallIslands = 0;
let smallTotal = 0;
for (const f of regions.features) {
const a = regionArea.get(f.id) ?? 0;
if (a >= COARSE_FLOOR_KM2) continue;
smallTotal++;
const bb = regionBBox.get(f.id)!;
let hasNeighbor = false;
for (const g of regions.features) {
if (g.id === f.id || g.properties.parent !== f.properties.parent) continue;
if (bboxesClose(bb, regionBBox.get(g.id)!)) {
hasNeighbor = true;
break;
}
}
if (hasNeighbor) {
smallNonIslands.push(`${f.id} (${Math.round(a)} km2)`);
} else smallIslands++;
}
const frac = regions.features.length ? smallNonIslands.length / regions.features.length : 0;
expect(
frac < 0.01,
`${smallNonIslands.length} non-island region(s) below the ${COARSE_FLOOR_KM2} km2 floor ` +
`(${(100 * frac).toFixed(2)}% of all regions): ${smallNonIslands.slice(0, 10).join(', ')}`,
).toBe(true);
console.log(
`\n below-floor regions: ${smallTotal} — ${smallIslands} islands (exempt, no same-country neighbor within ${CLOSE_DEG}°)` +
` / ${smallNonIslands.length} non-island residuals (must stay < 1% of all regions)`,
);
});
it('leaves exactly one enclosed hole: KZ-KZY (the real Aral Sea), still large', () => {
// v0.15 filled every small hole; v0.16 smoothing never touches holes; and
// v0.17's gap-filler explicitly keeps the Aral hole (its centroid matches a
// pre-existing hole and it lies inside another country's landmass) while
// dropping phantom holes. So the whole file must contain exactly one hole,
// on KZ-KZY, at a realistic size (~5,860 km2 planar; the real Aral has
// shrunk to roughly this by the 2020s) — no new holes of any size.
let holes = 0;
let maxHole = 0;
const holeIds: string[] = [];
let kzkzyHoleArea = 0;
for (const f of regions.features) {
const polys = f.geometry.type === 'Polygon' ? [f.geometry.coordinates] : f.geometry.coordinates;
for (const poly of polys) {
for (let i = 1; i < poly.length; i++) {
holes++;
let lat = 0;
for (const [, la] of poly[i]) lat += la;
const area = ringAreaKm2(poly[i], poly[i].length ? lat / poly[i].length : 0);
if (area > maxHole) maxHole = area;
holeIds.push(f.id);
if (f.id === 'KZ-KZY') kzkzyHoleArea = area;
}
}
}
expect(holes, `expected exactly 1 hole (KZ-KZY), found ${holes}: ${[...new Set(holeIds)].join(', ')}`).toBe(1);
expect(holeIds, 'the one remaining hole is KZ-KZY').toEqual(['KZ-KZY']);
expect(
kzkzyHoleArea >= 5_000 && kzkzyHoleArea <= 7_000,
`KZ-KZY hole is ${Math.round(kzkzyHoleArea).toLocaleString('en-US')} km2 — outside the 5,000–7,000 km2 Aral band`,
).toBe(true);
console.log(
`\n holes: exactly 1 (KZ-KZY ≈ ${Math.round(kzkzyHoleArea).toLocaleString('en-US')} km2) — the Aral hole survived v0.17's fill`,
);
});
it('sums to within [40%, 190%] of each country area (median in [70%, 130%])', () => {
// The band is a planar-approximation sanity check. It is wider than a naive
// [40%, 110%] because Natural Earth's admin-1 polygons are digitized
// independently of the admin-0 country polygons (they are NOT clipped to
// them). v0.17's gap fill removed the large UNDER-fills (the old minimum
// was Brunei at ~52% — its regions now cover the landmass, ≈ 79%), but
// the OVER-fill tail is a pre-existing admin-1 artifact: a few tiny island
// nations (Vanuatu 178.9%, Solomon Is. 133%, Bahamas 129%) have admin-1
// polygons that extend beyond their own country polygon, and the fill
// only added area *inside* the country, so it can't shrink that tail.
// The band brackets the measured [78.8%, 178.9%] with margin while still
// catching a genuinely missing or doubled-up region.
const ratios: number[] = [];
let minRatio = Infinity;
let maxRatio = -Infinity;
let minId = '';
let maxId = '';
for (const c of countries.features) {
const ca = countryArea.get(c.id) ?? 0;
if (ca <= 0) continue;
const ratio = (sumByParent.get(c.id) ?? 0) / ca;
ratios.push(ratio);
if (ratio < minRatio) { minRatio = ratio; minId = c.id; }
if (ratio > maxRatio) { maxRatio = ratio; maxId = c.id; }
expect(
ratio >= 0.4 && ratio <= 1.9,
`${c.id}: coverage ${(100 * ratio).toFixed(1)}% is outside [40%, 190%]`,
).toBe(true);
}
const medRatio = median(ratios);
expect(
medRatio >= 0.7 && medRatio <= 1.3,
`median coverage ${(100 * medRatio).toFixed(1)}% is outside [70%, 130%]`,
).toBe(true);
console.log(
`\n coverage range: min ${minId} ${(100 * minRatio).toFixed(1)}%` +
` / median ${(100 * medRatio).toFixed(1)}%` +
` / max ${maxId} ${(100 * maxRatio).toFixed(1)}% (band 40–190%)`,
);
});
it('covers each country\'s landmass with no significant no-one\'s-land (v0.17 gap fill, grid-sampled)', () => {
// The v0.17 fill (scripts/fill-gaps.mjs) assigned every uncovered sliver of
// each country's landmass (≥ 25 km²) to its nearest region, so the residual
// no-one's-land per country should be small everywhere. Measuring the
// exact union is too slow, so this samples a 25×25 grid over each
// country's raw bbox (skipping points outside the country polygon) and
// counts the fraction of in-land sample points that fall in NONE of the
// country's regions — a fast, deterministic proxy (same planar space,
// inline even-odd ray cast; antimeridian-safe because points and polygons
// share the raw coordinate space). Sampling over-counts coastline
// mismatch (admin-0 vs admin-1 edges), so the thresholds are generous:
// they catch a real regression (a whole sliver left unfilled) without
// being brittle to digitization fuzz.
const N = 25;
const results: { id: string; name: string; frac: number; land: number }[] = [];
for (const c of countries.features) {
const [w, s, e, n] = rawBBox(c.geometry);
if (e - w < 0.01 || n - s < 0.01) continue; // degenerate (point-like) country
const regs = regions.features.filter((f) => f.properties.parent === c.id);
let land = 0;
let uncov = 0;
for (let i = 0; i < N; i++) {
const la = s + ((i + 0.5) / N) * (n - s);
for (let j = 0; j < N; j++) {
const lo = w + ((j + 0.5) / N) * (e - w);
const pt: [number, number] = [lo, la];
if (!pointInGeom(pt, c.geometry)) continue;
land++;
// cheap bbox reject first, then the full containment test
if (!regs.some((f) => {
const [rw, rs, re, rn] = regionBB.get(f.id)!;
if (lo < rw || lo > re || la < rs || la > rn) return false;
return pointInGeom(pt, f.geometry);
}))
uncov++;
}
}
if (land >= 4) results.push({ id: c.id, name: c.properties.name, frac: uncov / land, land });
}
expect(results.length, `only ${results.length} countries sampled (expected ~176)`).toBeGreaterThanOrEqual(150);
const fracs = results.map((r) => r.frac).sort((a, b) => a - b);
const med = median(fracs);
const p90 = fracs[Math.floor(fracs.length * 0.9)];
const worst = results.reduce((m, r) => (r.frac > m.frac ? r : m));
const over20 = results.filter((r) => r.frac > 0.2).sort((a, b) => b.frac - a.frac);
expect(
med <= 0.05,
`median country gap ${(100 * med).toFixed(1)}% > 5% — significant no-one's-land remains`,
).toBe(true);
expect(
p90 <= 0.15,
`p90 country gap ${(100 * p90).toFixed(1)}% > 15% — many countries have real gaps`,
).toBe(true);
expect(
worst.frac <= 0.4,
`worst country ${worst.id} (${worst.name}) gap ${(100 * worst.frac).toFixed(1)}% > 40%`,
).toBe(true);
expect(
over20.length <= 3,
`${over20.length} countries with > 20% gap: ${over20.map((r) => `${r.id} ${(100 * r.frac).toFixed(1)}%`).join(', ')}`,
).toBe(true);
console.log(
`\n no-one's-land (grid-sampled, N=${N}): median ${(100 * med).toFixed(1)}% / p90 ${(100 * p90).toFixed(1)}%` +
` / max ${worst.id} (${worst.name}) ${(100 * worst.frac).toFixed(1)}%` +
(over20.length ? ` — >20%: ${over20.map((r) => `${r.id} ${(100 * r.frac).toFixed(1)}%`).join(', ')}` : ' — no country > 20%'),
);
});
it('is at the v0.26 fixed point: 1,800 regions, 11,794 parts, 11,795 rings, 164,801 vertices, 1 hole (KZ-KZY)', () => {
// v0.17 (scripts/fill-gaps.mjs) APPENDED cleaned gap pieces to the v0.16
// fixed point: it never moves an existing border, merges a part, or
// removes a ring — it only adds new parts (+6,768: 5,026 → 11,794) and
// keeps the single KZ-KZY hole. The v0.25 Arkhangel'sk split (#31,
// scripts/split-arkhangel.mjs) then repartitioned the 78 RU-ARK parts
// across three features (RU-ARK + RU-ARK-NE + RU-ARK-SZ), and the v0.26
// band split (#41, scripts/split-arkhangel-band.mjs) repartitioned the
// 33-part mainland again into RU-ARK + RU-PEO + RU-YAM. Both are pure
// re-groupings: no part/ring/vertex moves, so only the region count
// changed (1,796 → 1,798 → 1,800); the part/ring/vertex totals, the
// per-feature ids/names/parents, and the feature order (the new features
// sit immediately after RU-ARK-SZ) are as pinned below. Pinning the
// signature guards against a non-idempotent or destructive re-run; both
// stages are byte-deterministic per input and idempotent (a second run
// changes nothing).
const polysOf = (g: Geometry) => (g.type === 'Polygon' ? [g.coordinates] : g.coordinates);
let verts = 0,
rings = 0,
parts = 0,
holes = 0;
const holeIds: string[] = [];
for (const f of regions.features) {
const polys = polysOf(f.geometry);
parts += polys.length;
for (const poly of polys) {
rings += poly.length;
holes += Math.max(0, poly.length - 1);
if (poly.length > 1) holeIds.push(f.id);
for (const ring of poly) verts += ring.length;
}
}
expect(regions.features.length, 'region count').toBe(1800); // 1,796 + the #31 islands (+2) + the #41 band regions (+2)
expect(parts, 'parts').toBe(11_794); // v0.16: 5,026 → +6,768 appended gap pieces; unchanged by the #31/#41 re-partitions
expect(rings, 'rings').toBe(11_795); // every appended part is a single-ring polygon (+1 hole = KZ-KZY, pre-existing)
expect(holes, 'holes').toBe(1); // the single KZ-KZY hole, unchanged
expect(holeIds, 'the one remaining hole is KZ-KZY').toEqual(['KZ-KZY']);
expect(verts, 'total vertices (incl. ring closure)').toBe(164_801); // v0.16: 111,175; unchanged by the #31/#41 re-partitions
console.log(
`\n v0.26 fixed point: ${regions.features.length} regions (1,796 + the #31 islands + the #41 band), ` +
`${parts} parts, ${rings} rings, ${holes} hole (KZ-KZY), ${verts} vertices — v0.17 topology preserved`,
);
});
it('has the five Arkhangel\'sk-family features: #31 islands + #41 band (RU-ARK, New Earth, Severnaya Zemlya, Pechora, Yamal)', () => {
// v0.25 (#31): the ~411,500 km² RU-ARK mega-region (a 78-part MultiPolygon
// mixing mainland and far-north islands) was repartitioned by part
// centroid into the mainland (RU-ARK, keeps its id/name/key), the Franz
// Josef Land islets (RU-ARK-NE "New Earth", centroid lat ≥ 79.5) and the
// Severnaya Zemlya islets (RU-ARK-SZ, centroid 76–79.5° N, lon ≥ 55°E).
// v0.26 (#41): the 33-part mainland (post-#31) was repartitioned again —
// the 5 lat < 68 parts stay RU-ARK (id/name/key unchanged), and the 28
// lat ≥ 68 "Arctic-coast band" parts split into RU-PEO "Pechora" (the SW
// Voronoi cell, 13 parts) and RU-YAM "Yamal" (the NE Voronoi cell, 15
// parts). Pure re-grouping: all five keep parent RUS and all 78 original
// parts of the pre-#31 feature are accounted for, verbatim.
const byId = new Map(regions.features.map((f) => [f.id, f]));
const ark = byId.get('RU-ARK');
const ne = byId.get('RU-ARK-NE');
const sz = byId.get('RU-ARK-SZ');
const peo = byId.get('RU-PEO');
const yam = byId.get('RU-YAM');
for (const f of [ark, ne, sz, peo, yam]) {
expect(f, `${f?.id ?? '?'} exists`).toBeDefined();
expect(f!.properties.parent, `${f!.id} parent`).toBe('RUS');
expect(f!.geometry.type, `${f!.id} geometry`).toBe('MultiPolygon');
}
expect(ark!.properties.name, 'RU-ARK keeps its name').toBe("Arkhangel'sk");
expect(ne!.properties.name, 'RU-ARK-NE name').toBe('New Earth');
expect(sz!.properties.name, 'RU-ARK-SZ name').toBe('Severnaya Zemlya');
expect(peo!.properties.name, 'RU-PEO name').toBe('Pechora');
expect(yam!.properties.name, 'RU-YAM name').toBe('Yamal');
// the 78 parts of the pre-split feature are all accounted for, verbatim
const countParts = (f: (typeof regions.features)[number]) =>
f.geometry.type === 'MultiPolygon' ? f.geometry.coordinates.length : 1;
expect(
countParts(ark!) + countParts(ne!) + countParts(sz!) + countParts(peo!) + countParts(yam!),
'total parts across the five features',
).toBe(78);
// the #41 split: the mainland core keeps its 5 lat < 68 parts; the band's
// 28 parts split 13 (Pechora) / 15 (Yamal)
expect(countParts(ark!), 'RU-ARK core part count').toBe(5);
expect(countParts(peo!), 'RU-PEO part count').toBe(13);
expect(countParts(yam!), 'RU-YAM part count').toBe(15);
// stable file order: RU-ARK, RU-ARK-NE, RU-ARK-SZ, RU-PEO, RU-YAM
const idx = regions.features.findIndex((f) => f.id === 'RU-ARK');
expect(regions.features[idx + 1]?.id).toBe('RU-ARK-NE');
expect(regions.features[idx + 2]?.id).toBe('RU-ARK-SZ');
expect(regions.features[idx + 3]?.id).toBe('RU-PEO');
expect(regions.features[idx + 4]?.id).toBe('RU-YAM');
console.log(
`\n #31 + #41: RU-ARK ${countParts(ark!)} parts (core), RU-ARK-NE ${countParts(ne!)} (New Earth), ` +
`RU-ARK-SZ ${countParts(sz!)} (Severnaya Zemlya), RU-PEO ${countParts(peo!)} (Pechora), RU-YAM ${countParts(yam!)} (Yamal)`,
);
});
});
+180
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@@ -0,0 +1,180 @@
#!/usr/bin/env node
/**
* scripts/smooth-regions.mjs — smooths jagged sub-national region boundaries.
*
* Run: npm run smooth:regions (in place on public/regions.geo.json)
* node scripts/smooth-regions.mjs [out] [src]
*
* The v0.14 coarsening (boolean dissolve) and Natural Earth's 1:10m digitization
* left some sub-national boundaries overly jagged — the worst being coastal /
* borderland regions that the dissolve split into many small, zig-zag fragments
* (e.g. SI-048 Kocevje, Slovenia, 57 parts; MK-36 Kavadartsi, N. Macedonia, 8
* parts). This cleans the jaggedness in place with **Douglas–Peucker
* vertex-thinning** (`@turf/simplify`), applied to every ring of every polygon.
*
* DOUGLAS–PEUCKER — `@turf/simplify` keeps a vertex only when it deviates from
* the chord joining its kept neighbours by more than the tolerance, removing
* the redundant "in-between" points of a shallow zig-zag. The tolerance is
* expressed in the GeoJSON degree space (its distance metric treats 1° lon
* == 1° lat); TOLERANCE_M (metres) is converted with the same ~111 km/° the
* area model uses, so TOLERANCE_M = 50 is a gentle ~50 m pass. Bump it to
* 100 / 200 for a stronger pass and re-run — the pass is idempotent either way.
*
* VERTEX-THINNING ONLY — DP only removes points. It never moves a border,
* never merges/dissolves regions or parts, and never creates or removes a
* ring, so topology is preserved exactly: the region count, every `id`,
* `properties.name`/`properties.parent`, the part count of every feature, the
* single real hole (KZ-KZY), and all 83 islands are all unchanged. Only the
* redundant vertices along each ring are dropped.
*
* Deterministic + idempotent: one @turf/simplify pass at a fixed tolerance, then
* 4-dp rounding (the same convention as the other scripts). Because the output
* is already at the tolerance's fixed point, re-running on the smoothed file
* yields a byte-identical file (sha256-verified). The 18 degenerate 3-point
* micro-rings (the ~0-area "dots" like Ragged Island / the Paracels) are kept
* verbatim — @turf/simplify requires ≥4 points and would otherwise throw — so
* no ring is ever dropped and every feature keeps its exact part/ring count.
*/
import { readFileSync, writeFileSync } from 'node:fs';
import path from 'node:path';
import { fileURLToPath } from 'node:url';
import { simplify } from '@turf/simplify';
const here = path.dirname(fileURLToPath(import.meta.url));
const root = path.resolve(here, '..');
const DEFAULT_FILE = path.join(root, 'public', 'regions.geo.json');
const args = process.argv.slice(2).filter((a) => !a.startsWith('-'));
const OUT = args[0] ? path.resolve(args[0]) : DEFAULT_FILE;
const SRC = args[1] ? path.resolve(args[1]) : DEFAULT_FILE;
// --- parameters ---------------------------------------------------------------
const TOLERANCE_M = 50; // DP tolerance in metres — ~50 m is gentle (bump to 100/200 for more)
const M_PER_DEG = 111_000; // ~111 km per degree (same scale as the area model's 111.32/110.574)
const TOL_DEG = TOLERANCE_M / M_PER_DEG; // @turf/simplify works in degree space → ≈ 0.00045°
const R4 = 4; // coordinate precision (decimal places) — same as the other scripts
// --- rounding / normalization (same conventions as the other scripts) ----------
const rN = (v, N) => Math.round(v * 10 ** N) / 10 ** N;
function roundRing(ring, N = R4) {
const out = [];
for (const [x, y] of ring) {
const p = [rN(x, N), rN(y, N)];
const last = out[out.length - 1];
if (!last || last[0] !== p[0] || last[1] !== p[1]) out.push(p);
}
if (out.length > 1 && out[0][0] === out[out.length - 1][0] && out[0][1] === out[out.length - 1][1]) out.pop();
if (out.length < 3) return ring; // degenerate — keep verbatim, never corrupt a ring
return [...out, [...out[0]]];
}
// --- tiny geometry helpers -----------------------------------------------------
const polysOf = (g) => (g.type === 'Polygon' ? [g.coordinates] : g.coordinates);
const ringsOf = (g) => polysOf(g).flatMap((p) => p);
const countVerts = (g) => ringsOf(g).reduce((s, r) => s + r.length, 0);
const countParts = (g) => (g.type === 'Polygon' ? 1 : g.coordinates.length);
const countRings = (g) => ringsOf(g).length;
const countHoles = (g) => polysOf(g).reduce((s, p) => s + Math.max(0, p.length - 1), 0);
/**
* Smooth one closed ring with a single @turf/simplify (Douglas–Peucker) pass.
* Only removes vertices — never adds, never drops the ring. Degenerate rings
* (<4 pts) are returned verbatim (simplify would throw); a ring DP would
* over-collapse below a valid 4-pt ring is kept as-is; any error keeps the
* original. Never throws.
*/
function smoothRing(ring) {
if (!Array.isArray(ring) || ring.length < 4) return ring; // keep degenerate verbatim
try {
const feat = { type: 'Feature', geometry: { type: 'Polygon', coordinates: [ring] } };
const next = simplify(feat, { tolerance: TOL_DEG }).geometry.coordinates[0];
if (!Array.isArray(next) || next.length < 4) return ring; // over-collapsed — keep original
const closed =
next[next.length - 1][0] === next[0][0] && next[next.length - 1][1] === next[0][1]
? next
: [...next, [next[0][0], next[0][1]]];
const rounded = roundRing(closed);
return rounded.length >= 4 ? rounded : ring;
} catch {
return ring;
}
}
/** Smooth every ring of a geometry. Never drops a ring or a part. */
function smoothGeom(geom) {
const newPolys = polysOf(geom).map((poly) => poly.map(smoothRing));
if (geom.type === 'Polygon' && newPolys.length === 1) return { type: 'Polygon', coordinates: newPolys[0] };
return { type: 'MultiPolygon', coordinates: newPolys };
}
// --- main ----------------------------------------------------------------------
function main() {
const t0 = Date.now();
const rawIn = readFileSync(SRC);
const fc = JSON.parse(rawIn);
const inBytes = Buffer.byteLength(rawIn);
console.log(`input: ${fc.features.length} regions (${(inBytes / 1024).toFixed(0)} KB) from ${SRC}`);
console.log(`mode: Douglas–Peucker via @turf/simplify, tolerance ${TOLERANCE_M} m (≈ ${TOL_DEG}°)`);
// before stats
let vb = 0, hb = 0, pb = 0, rb = 0, degenerate = 0;
for (const f of fc.features) {
vb += countVerts(f.geometry);
hb += countHoles(f.geometry);
pb += countParts(f.geometry);
rb += countRings(f.geometry);
for (const r of ringsOf(f.geometry)) if (r.length < 4) degenerate++;
}
const outFeatures = fc.features.map((f) => {
const g = smoothGeom(f.geometry);
return { type: 'Feature', id: f.id, properties: { name: f.properties.name, parent: f.properties.parent }, geometry: g };
});
const out = { type: 'FeatureCollection', features: outFeatures };
// after stats + change count (compare against the original, in order)
let va = 0, ha = 0, pa = 0, ra = 0, changed = 0;
for (let i = 0; i < out.features.length; i++) {
const f = out.features[i];
va += countVerts(f.geometry);
ha += countHoles(f.geometry);
pa += countParts(f.geometry);
ra += countRings(f.geometry);
if (JSON.stringify(f.geometry) !== JSON.stringify(fc.features[i].geometry)) changed++;
}
const afterVerts = new Map(out.features.map((f) => [f.id, countVerts(f.geometry)]));
const json = JSON.stringify(out);
writeFileSync(OUT, json + '\n');
const outBytes = Buffer.byteLength(json) + 1;
console.log(`\n--- RESULTS ---`);
console.log(`regions: ${fc.features.length} → ${out.features.length} (unchanged)`);
console.log(`vertices (incl. ring closure): ${vb} → ${va} removed ${vb - va} (${(100 * (vb - va) / vb).toFixed(2)}%)`);
console.log(`rings: ${rb} → ${ra} parts: ${pb} → ${pa} holes: ${hb} → ${ha} (all unchanged)`);
console.log(`regions whose geometry changed: ${changed} / ${fc.features.length}`);
console.log(`degenerate rings (<4 pts, kept verbatim): ${degenerate}`);
console.log(`file: ${(inBytes / 1024).toFixed(0)} KB → ${(outBytes / 1024).toFixed(0)} KB (${(outBytes / 1024 / 1024).toFixed(2)} MB)`);
// Diagnose the "messy" regions: the real problem is fragmentation — the
// dissolve left coherent regions as many disconnected parts. Rank by part
// count (then total vertices) so these surface; Kocelje/Kavadartsi are here.
const messy = fc.features
.map((f) => ({
id: f.id,
name: f.properties.name,
parent: f.properties.parent,
parts: countParts(f.geometry),
vb: countVerts(f.geometry),
}))
.sort((a, b) => b.parts - a.parts || b.vb - a.vb)
.slice(0, 15);
console.log(`\nMOST-MESSY (top ${messy.length} by fragmentation = parts, then vertices):`);
console.log(` id name country parts verts verts(after)`);
for (const m of messy)
console.log(` ${m.id.padEnd(10)} ${m.name.slice(0, 37).padEnd(38)} ${m.parent.padEnd(7)} ${String(m.parts).padStart(4)} ${String(m.vb).padStart(5)} ${String(afterVerts.get(m.id)).padStart(5)}`);
console.log(`\nwrote ${OUT}; elapsed ${((Date.now() - t0) / 1000).toFixed(1)}s`);
}
main();
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#!/usr/bin/env node
/**
* scripts/split-arkhangel-band.mjs — split the RU-ARK Arctic-coast band into
* two new regions, RU-PEO ("Pechora", the SW group) and RU-YAM ("Yamal", the
* NE group) (issue #41, a follow-up to #31).
*
* The #31 split (`scripts/split-arkhangel.mjs`) left `RU-ARK` as a 33-part
* MultiPolygon (~393,256 km²). Measured on that feature (centroid latitude /
* planar area), the parts divide cleanly by centroid latitude:
*
* lat < 68 4 parts ~305,000 km² (Arkhangel'sk proper + 3 slivers)
* 66 ≤ lat < 68 1 part ~47 km²
* lat ≥ 68 28 parts ~88,000 km² (the "Arctic-coast band")
*
* The band is really *other* Arctic oblasts (Nenets / Pechora / Yamal / Taimyr
* side) mis-lumped into Arkhangel'sk during the v0.14 coarsening. This stage
* re-coarsens it: the 28 band parts are split into two new regions by a
* Voronoi of the two band parts with the largest planar area (the SW anchor
* vs the NE anchor), while the 5 lat < 68 parts stay in `RU-ARK`.
*
* RU-ARK (keeps its id and name) — the 5 lat < 68 parts (original order)
* → still the `arkhangel-sk-lhbk` key
* RU-PEO "Pechora" — the band's SW Voronoi cell (13 parts)
* RU-YAM "Yamal" — the band's NE Voronoi cell (15 parts)
*
* Deterministic, turf-free threshold spec (all data-derived — no magic
* coordinates; the same planar model the tests/adjacency build use):
* 1. centroid of a part = the mean of its outer-ring vertices (verified to
* give the same band assignment as turf's area-weighted centroid, 0 flips).
* 2. band = the parts whose centroid lat ≥ 68 (asserted to be exactly 28).
* 3. anchors = the 2 band parts with the largest planar area (≈ 47,223 and
* ≈ 32,907 km², indices 2 and 1 in the 33-part feature); anchorW = the
* anchor with the smaller centroid longitude.
* 4. each non-anchor band part → the nearer anchor by km-weighted centroid
* distance, `dist(a,b) = hypot(Δlon·111.32·cos(midLat), Δlat·110.574)`;
* a tie → west (anchorW). Each anchor → its own group. This yields
* PEO = {1,4,5,9,11,12,13,14,16,17,18,20,22} and
* YAM = {2,6,15,19,21,23,24,25,26,27,28,29,30,31,32} (0-based indices).
*
* PURE REPARTITION — no geometry is created, moved, or altered: each part is
* moved verbatim (same coordinates, same ring order) from the one feature to
* the others. The union of the three output geometries is byte-identical to
* the input feature's parts, so no border moves and no new overlap is
* possible (the same guarantee as #31). `RU-ARK` keeps its stable feature id,
* so its region key (`arkhangel-sk-lhbk`, FNV-1a of the id) and every existing
* `Nation.territory` / SQLite ownership referencing it stays valid; the two
* new ids (`RU-PEO`, `RU-YAM`) get their own keys derived by the same FNV-1a
* rule in `scripts/build-region-keys.mjs` (`pechora-qwhs`, `yamal-gosw` —
* run it after this stage).
*
* The new features are inserted immediately after `RU-ARK-SZ` (stable file
* order, deterministic bytes: `RU-ARK, RU-ARK-NE, RU-ARK-SZ, RU-PEO, RU-YAM,
* …`). Each new feature's `properties` copies `RU-ARK`'s (only `name` and
* `parent` exist in this dataset) with `name` overridden; `parent` stays RUS.
* Each feature's geometry is a MultiPolygon of its assigned parts (in
* original order), or a single Polygon if it ended up with one part (it won't
* here, but the builder handles it).
*
* Pipeline position: AFTER `split-arkhangel` and BEFORE `build-region-keys`
* (the manifests must be rebuilt after any geo change):
*
* generate → coarsen → cleanup → smooth → fill-gaps → split-arkhangel
* → **split-arkhangel-band** → build-region-keys → build-region-adjacency
*
* Idempotent: when RU-PEO and RU-YAM already exist the file is left untouched
* (no write at all), so a full re-run of the pipeline reproduces byte-identical
* output.
*
* Usage: node scripts/split-arkhangel-band.mjs [inFile [outFile]]
* (or `npm run split:regions:band`)
* inFile default: public/regions.geo.json
* outFile default: inFile (edit in place)
*
* Deliberately turf-free: no `@turf/*` import (turf is only ever imported by
* the geo-generator `.mjs` stages, never by this re-partition or by any `.ts`).
*/
import { readFileSync, writeFileSync } from 'node:fs';
import path from 'node:path';
import { fileURLToPath } from 'node:url';
const here = path.dirname(fileURLToPath(import.meta.url));
const root = path.resolve(here, '..');
const inFile = process.argv[2] ?? path.join(root, 'public', 'regions.geo.json');
const outFile = process.argv[3] ?? inFile;
// A part whose centroid lat is ≥ this is part of the Arctic-coast band; the
// lat < 68 core stays in RU-ARK (issue #41).
const BAND_MIN_LAT = 68;
// The post-#31 mainland feature is a 33-part MultiPolygon; any other shape
// means the file is not the state this stage expects → fail loud.
const EXPECTED_PARTS = 33;
// The Arctic-coast band is exactly 28 of those parts (lat ≥ 68).
const EXPECTED_BAND = 28;
// Planar km model (matches the test's area model and the adjacency build):
// x = lon · 111.32 · cos(midLat), y = lat · 110.574.
const KM_LON = 111.32;
const KM_LAT = 110.574;
const rad = (deg) => (deg * Math.PI) / 180;
/**
* Mean of a part's outer-ring vertices — a turf-free centroid. Verified to give
* the same band assignment as turf's area-weighted centroid (0 flips).
*/
function centroidOf(part) {
const ring = part[0];
let lon = 0;
let lat = 0;
for (const [lo, la] of ring) {
lon += lo;
lat += la;
}
return [lon / ring.length, lat / ring.length];
}
/** Planar area of a part (km²), shoelace over its outer ring at its mean latitude. */
function areaKm2(part) {
const ring = part[0];
let lat = 0;
for (const [, la] of ring) lat += la;
const midLat = lat / ring.length;
const kx = KM_LON * Math.cos(rad(midLat));
let a = 0;
for (let i = 0; i < ring.length; i++) {
const [lon1, lat1] = ring[i];
const [lon2, lat2] = ring[(i + 1) % ring.length];
a += lon1 * kx * (lat2 * KM_LAT) - lon2 * kx * (lat1 * KM_LAT);
}
return Math.abs(a / 2);
}
/** Planar km distance between two centroids (midpoint-latitude weighted). */
function kmDist(a, b) {
const dLon = b[0] - a[0];
const dLat = b[1] - a[1];
const midLat = (a[1] + b[1]) / 2;
return Math.hypot(dLon * KM_LON * Math.cos(rad(midLat)), dLat * KM_LAT);
}
// --- load --------------------------------------------------------------------
const geo = JSON.parse(readFileSync(inFile, 'utf8'));
if (geo?.type !== 'FeatureCollection' || !Array.isArray(geo.features)) {
throw new Error(`${inFile} is not a FeatureCollection`);
}
const features = geo.features;
// --- idempotency: already split? ----------------------------------------------
const ids = new Set(features.map((f) => String(f.id ?? '')));
if (ids.has('RU-PEO') && ids.has('RU-YAM')) {
console.log(
`[split-arkhangel-band] RU-PEO and RU-YAM already present — no-op (idempotent), ${inFile} left untouched`,
);
process.exit(0);
}
// --- load + validate RU-ARK ---------------------------------------------------
const idx = features.findIndex((f) => f.id === 'RU-ARK');
if (idx < 0) throw new Error('RU-ARK not found in ' + inFile);
const ark = features[idx];
if (ark.geometry?.type !== 'MultiPolygon') {
throw new Error(
`RU-ARK geometry is ${ark.geometry?.type}, expected MultiPolygon (the 33-part post-#31 mainland)`,
);
}
const parts = ark.geometry.coordinates;
if (parts.length !== EXPECTED_PARTS) {
throw new Error(`RU-ARK has ${parts.length} parts, expected ${EXPECTED_PARTS} (the post-#31 mainland)`);
}
// --- band selection (centroid lat ≥ 68) and the lat < 68 core -----------------
const partsByIndex = parts.map((p, i) => ({ i, c: centroidOf(p) }));
const band = partsByIndex.filter((o) => o.c[1] >= BAND_MIN_LAT);
if (band.length !== EXPECTED_BAND) {
throw new Error(`expected exactly ${EXPECTED_BAND} Arctic-coast band parts (lat ≥ ${BAND_MIN_LAT}), found ${band.length}`);
}
const core = partsByIndex.filter((o) => o.c[1] < BAND_MIN_LAT);
// --- anchors: the two band parts with the largest planar area -----------------
// (≈ 47,223 and ≈ 32,907 km², indices 2 and 1 in the 33-part feature).
const byArea = [...band].sort((a, b) => areaKm2(parts[b.i]) - areaKm2(parts[a.i]));
const big = byArea[0];
const small = byArea[1];
const anchorW = big.c[0] <= small.c[0] ? big : small; // the west (SW) anchor
const anchorE = big.c[0] <= small.c[0] ? small : big; // the east (NE) anchor
// --- assignment (Voronoi by km-weighted centroid distance; tie → west) --------
const peo = new Set([anchorW.i]);
const yam = new Set([anchorE.i]);
for (const o of band) {
if (o.i === anchorW.i || o.i === anchorE.i) continue;
const dW = kmDist(o.c, anchorW.c);
const dE = kmDist(o.c, anchorE.c);
(dW <= dE ? peo : yam).add(o.i); // a tie goes to the west (anchorW) group
}
// --- rebuild geometries (parts verbatim, original order; MultiPolygon/Polygon) --
const geom = (ps) =>
ps.length > 1 ? { type: 'MultiPolygon', coordinates: ps } : { type: 'Polygon', coordinates: ps[0] };
const coreParts = [...core].sort((a, b) => a.i - b.i).map((o) => parts[o.i]);
const peoParts = [...peo].sort((a, b) => a - b).map((i) => parts[i]);
const yamParts = [...yam].sort((a, b) => a - b).map((i) => parts[i]);
ark.geometry = geom(coreParts);
const mkFeature = (id, name, ps) => ({
type: 'Feature',
id,
// copy every property RU-ARK has (currently just { name, parent }), overriding name
properties: { ...ark.properties, name },
geometry: geom(ps),
});
const peoF = mkFeature('RU-PEO', 'Pechora', peoParts);
const yamF = mkFeature('RU-YAM', 'Yamal', yamParts);
// --- report -------------------------------------------------------------------
const km2 = (ps) => ps.reduce((s, p) => s + areaKm2(p), 0);
console.log(`[split-arkhangel-band] input: ${inFile}`);
console.log(
` RU-ARK (core, lat < 68) ${coreParts.length} parts (of ${parts.length}), ≈ ${Math.round(km2(coreParts)).toLocaleString('en-US')} km²`,
);
console.log(
` RU-PEO (Pechora, SW) ${peoParts.length} parts, ≈ ${Math.round(km2(peoParts)).toLocaleString('en-US')} km² [${[...peo].sort((a, b) => a - b).join(',')}]`,
);
console.log(
` RU-YAM (Yamal, NE) ${yamParts.length} parts, ≈ ${Math.round(km2(yamParts)).toLocaleString('en-US')} km² [${[...yam].sort((a, b) => a - b).join(',')}]`,
);
if (peoParts.length === 0 || yamParts.length === 0) {
throw new Error(
`threshold mis-split: Pechora=${peoParts.length} parts, Yamal=${yamParts.length} parts — check the band before shipping`,
);
}
// --- insert at a stable position (immediately after RU-ARK-SZ) and write -------
// RU-ARK-SZ must exist (the #31 split ran first); if it doesn't, this stage is
// being run out of order → fail loud.
const szIdx = features.findIndex((f) => f.id === 'RU-ARK-SZ');
if (szIdx < 0) {
throw new Error('RU-ARK-SZ not found — the #31 split (scripts/split-arkhangel.mjs) must run before this stage');
}
features.splice(szIdx + 1, 0, peoF, yamF);
writeFileSync(outFile, JSON.stringify(geo));
console.log(
`[split-arkhangel-band] wrote ${outFile} — features ${features.length - 2} → ${features.length}` +
` (order …, RU-ARK, RU-ARK-NE, RU-ARK-SZ, RU-PEO, RU-YAM, …)`,
);
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#!/usr/bin/env node
/**
* scripts/split-arkhangel.mjs — split the RU-ARK ("Arkhangel'sk") mega-region
* into main + two detached island archipelagos (issue #31).
*
* `RU-ARK` is a 78-part MultiPolygon of ~411,500 km²: the Arkhangel'sk
* mainland plus Arctic-coast mainland parts, tiny islets, AND two far-north
* island groups that belong nowhere near the mainland — the Franz Josef Land
* islets (New Earth, centroid lat ≥ 79.5) and the Severnaya Zemlya islets
* (centroid lat 76–79.5, lon ≥ 55). This stage repartitions the existing
* polygon parts between three features so each island group is its own
* addressable sub-region:
*
* RU-ARK (keeps its id and name) — every part whose centroid has
* lat < 76 (the mainland, Arctic-coast
* mainland parts, islets, one south dot)
* RU-ARK-NE "New Earth" — every part whose centroid has
* lat ≥ 79.5 (the 42 Franz Josef Land
* islets, ~15,700 km²)
* RU-ARK-SZ "Severnaya Zemlya" — every part whose centroid has
* 76 ≤ lat < 79.5 AND lon ≥ 55 (the 3
* Severnaya Zemlya islets, ~1,200 km²)
*
* (Parts in the 76–79.5° band with lon < 55 would stay in RU-ARK; none exist
* in the current dataset — the split is verified clean before it is written.)
*
* PURE REPARTITION — no geometry is created, moved, or altered: each part is
* moved verbatim (same coordinates, same ring order) from the one feature to
* the other. The union of the three output geometries is byte-identical to
* the input feature's parts, so no border moves and no new overlap is
* possible. RU-ARK keeps its stable feature id, so its region key
* (`arkhangel-sk-lhbk`, FNV-1a of the id) and every existing
* `Nation.territory` / SQLite ownership referencing it stays valid; the two
* new ids (`RU-ARK-NE`, `RU-ARK-SZ`) get their own keys derived by the same
* FNV-1a rule in `scripts/build-region-keys.mjs` (run it after this stage).
*
* The new features are inserted immediately after RU-ARK (stable file order,
* deterministic bytes). Each new feature's `properties` copies RU-ARK's
* (only `name` and `parent` exist in this dataset) with `name` overridden;
* `parent` stays RUS. Each feature's geometry is a MultiPolygon of its
* assigned parts, or a single Polygon if it ends up with one part.
*
* Pipeline position: between `fill-gaps` and `build-region-keys` (the
* manifests must be rebuilt after any geo change):
*
* generate → coarsen → cleanup → smooth → fill-gaps → **split-arkhangel**
* → build-region-keys → build-region-adjacency
*
* Idempotent: when RU-ARK-NE and RU-ARK-SZ already exist the file is left
* untouched (no write at all), so a full re-run of the pipeline reproduces
* byte-identical output.
*
* Usage: node scripts/split-arkhangel.mjs [inFile [outFile]]
* (or `npm run split:regions`)
* inFile default: public/regions.geo.json
* outFile default: inFile (edit in place)
*
* `@turf/centroid` + `@turf/helpers` are used only to classify each part by
* its centroid — the same measurement the split thresholds are defined in.
* (Turf is allowed in .mjs scripts only; never imported by any .ts file.)
*/
import { readFileSync, writeFileSync } from 'node:fs';
import path from 'node:path';
import { fileURLToPath } from 'node:url';
import centroid from '@turf/centroid';
import area from '@turf/area';
import { polygon } from '@turf/helpers';
const here = path.dirname(fileURLToPath(import.meta.url));
const root = path.resolve(here, '..');
const inFile = process.argv[2] ?? path.join(root, 'public', 'regions.geo.json');
const outFile = process.argv[3] ?? inFile;
// The split thresholds (degrees), per issue #31.
const NEW_EARTH_MIN_LAT = 79.5; // centroid lat ≥ this → New Earth (Franz Josef Land)
const SZ_BAND_MIN_LAT = 76; // centroid lat ≥ this (and < NEW_EARTH_MIN_LAT)…
const SZ_MIN_LON = 55; // …and centroid lon ≥ this → Severnaya Zemlya
// (anything else — including the 76–79.5° band west of 55°E, of which the
// current dataset has none — stays in the main Arkhangel'sk feature)
/** A GeoJSON polygon part as a turf Feature (for centroid/area only). */
const partFeature = (part) => polygon(part);
/**
* A part's centroid [lon, lat]. Strict by design: a centroid that cannot be
* computed is a data error, not something to silently route to the mainland.
*/
function centroidOf(part) {
try {
return centroid(partFeature(part)).geometry.coordinates;
} catch (err) {
throw new Error(`cannot compute centroid for a RU-ARK part: ${err.message}`);
}
}
/** Classify a centroid [lon, lat] into one of the three output buckets. */
function bucketOf([lon, lat]) {
if (lat >= NEW_EARTH_MIN_LAT) return 'ne';
if (lat >= SZ_BAND_MIN_LAT && lat < NEW_EARTH_MIN_LAT && lon >= SZ_MIN_LON) return 'sz';
return 'main';
}
// --- load --------------------------------------------------------------------
const geo = JSON.parse(readFileSync(inFile, 'utf8'));
if (geo?.type !== 'FeatureCollection' || !Array.isArray(geo.features)) {
throw new Error(`${inFile} is not a FeatureCollection`);
}
const features = geo.features;
// --- idempotency: already split? ----------------------------------------------
const ids = new Set(features.map((f) => String(f.id ?? '')));
if (ids.has('RU-ARK-NE') && ids.has('RU-ARK-SZ')) {
console.log(
`[split-arkhangel] RU-ARK-NE and RU-ARK-SZ already present — no-op (idempotent), ${inFile} left untouched`,
);
process.exit(0);
}
const idx = features.findIndex((f) => f.id === 'RU-ARK');
if (idx < 0) {
throw new Error('RU-ARK not found in ' + inFile);
}
const ark = features[idx];
if (ark.geometry?.type !== 'MultiPolygon') {
throw new Error(
`RU-ARK geometry is ${ark.geometry?.type}, expected MultiPolygon (the split expects the pre-#31 mega-region)`,
);
}
const parts = ark.geometry.coordinates;
// --- partition (stable: original part order is kept inside each bucket) -------
const buckets = { main: [], ne: [], sz: [] };
let bandWest = 0; // 76–79.5°-band parts west of 55°E (stay in main; 0 in the current data)
for (const part of parts) {
const [lon, lat] = centroidOf(part);
if (lat >= SZ_BAND_MIN_LAT && lat < NEW_EARTH_MIN_LAT && lon < SZ_MIN_LON) bandWest += 1;
buckets[bucketOf([lon, lat])].push(part);
}
// --- rebuild geometries (parts verbatim; MultiPolygon, or Polygon if 1 part) --
const geom = (ps) =>
ps.length > 1
? { type: 'MultiPolygon', coordinates: ps }
: { type: 'Polygon', coordinates: ps[0] };
ark.geometry = geom(buckets.main);
const mkFeature = (id, name, ps) => ({
type: 'Feature',
id,
// copy every property RU-ARK has (currently just { name, parent }), overriding name
properties: { ...ark.properties, name },
geometry: geom(ps),
});
const ne = mkFeature('RU-ARK-NE', 'New Earth', buckets.ne);
const sz = mkFeature('RU-ARK-SZ', 'Severnaya Zemlya', buckets.sz);
// --- report -------------------------------------------------------------------
const km2 = (ps) => ps.reduce((s, p) => s + area(partFeature(p)) * 1e-6, 0);
console.log(`[split-arkhangel] input: ${inFile}`);
console.log(
` RU-ARK (main) ${buckets.main.length} parts (of ${parts.length}), ≈ ${Math.round(km2(buckets.main)).toLocaleString('en-US')} km²` +
(bandWest ? ` — incl. ${bandWest} part(s) in the 76–79.5° band west of 55°E (kept in main)` : ''),
);
console.log(
` RU-ARK-NE (New Earth) ${buckets.ne.length} parts, ≈ ${Math.round(km2(buckets.ne)).toLocaleString('en-US')} km²`,
);
console.log(
` RU-ARK-SZ (Severnaya Zemlya) ${buckets.sz.length} parts, ≈ ${Math.round(km2(buckets.sz)).toLocaleString('en-US')} km²`,
);
if (buckets.ne.length === 0 || buckets.sz.length === 0) {
throw new Error(
`threshold mis-split: New Earth=${buckets.ne.length} parts, Severnaya Zemlya=${buckets.sz.length} parts — check the centroids before shipping`,
);
}
// --- insert at a stable position (immediately after RU-ARK) and write ---------
features.splice(idx + 1, 0, ne, sz);
writeFileSync(outFile, JSON.stringify(geo));
console.log(`[split-arkhangel] wrote ${outFile} — features ${features.length - 2} → ${features.length}`);
+46
View File
@@ -21,6 +21,10 @@ function makeState(id: string): GameState {
},
},
events: [],
pending: [],
version: 1,
unowned: [],
pendingNationOps: [],
};
}
@@ -53,6 +57,11 @@ describe('openDb', () => {
expect(db.load('a')?.events).toHaveLength(1);
expect([...db.listIds()].sort()).toEqual(['a', 'b']); // still two rows
// the monotonic version is persisted with the state and round-trips
s.version = 3;
db.save(s);
expect(db.load('a')?.version).toBe(3);
db.close();
});
@@ -65,4 +74,41 @@ describe('openDb', () => {
expect(db.load('missing')).toBeNull();
db.close();
});
it('(v0.22 #16 P3) a legacy row saved before the unowned field existed loads with it defaulted to []', () => {
const db = openDb(':memory:');
const legacy = makeState('legacy');
delete (legacy as { unowned?: string[] }).unowned; // a pre-v0.22 save (field absent)
db.save(legacy);
const loaded = db.load('legacy');
expect(loaded).not.toBeNull();
expect(loaded!.unowned).toEqual([]);
db.close();
});
it('(v0.23 #16 P4a) a legacy row saved before the pendingNationOps field existed loads with it defaulted to []', () => {
const db = openDb(':memory:');
const legacy = makeState('legacy');
delete (legacy as { pendingNationOps?: unknown[] }).pendingNationOps; // a pre-v0.23 save (field absent)
db.save(legacy);
const loaded = db.load('legacy');
expect(loaded).not.toBeNull();
expect(loaded!.pendingNationOps).toEqual([]);
db.close();
});
it('delete removes a game by id and reports absence otherwise', () => {
const db = openDb(':memory:');
db.save(makeState('a'));
db.save(makeState('b'));
expect(db.delete('nope')).toBe(false); // unknown id
expect(db.delete('a')).toBe(true); // removes a
expect(db.load('a')).toBeNull();
expect(db.load('b')?.id).toBe('b');
expect([...db.listIds()].sort()).toEqual(['b']);
expect(db.delete('a')).toBe(false); // already gone
db.close();
});
});
+13 -1
View File
@@ -8,6 +8,7 @@ export interface Db {
save(state: GameState): void;
load(id: string): GameState | null;
listIds(): string[];
delete(id: string): boolean;
close(): void;
}
@@ -29,6 +30,7 @@ export function openDb(filePath: string): Db {
);
const byId = db.prepare('SELECT data FROM games WHERE id = ?');
const all = db.prepare('SELECT id FROM games ORDER BY updated_at DESC');
const del = db.prepare('DELETE FROM games WHERE id = ?');
return {
save(state) {
upsert.run(state.id, JSON.stringify(state), new Date().toISOString());
@@ -37,7 +39,14 @@ export function openDb(filePath: string): Db {
const row = byId.get(id) as { data: string } | undefined;
if (!row) return null;
try {
return JSON.parse(row.data) as GameState;
const state = JSON.parse(row.data) as GameState;
// (v0.22, #16 P3) Rows saved before `GameState.unowned` existed load
// with it defaulted: a legacy game has no no-man's-land regions.
if (state.unowned === undefined) state.unowned = [];
// (v0.23, #16 P4a) Same for pending nation-op proposals: a legacy game
// has none awaiting confirm/reject.
if (state.pendingNationOps === undefined) state.pendingNationOps = [];
return state;
} catch {
return null;
}
@@ -45,6 +54,9 @@ export function openDb(filePath: string): Db {
listIds() {
return (all.all() as { id: string }[]).map((r) => r.id);
},
delete(id) {
return del.run(id).changes > 0;
},
close() {
db.close();
},
+1419 -16
View File
File diff suppressed because it is too large Load Diff
+720 -46
View File
@@ -7,8 +7,11 @@ import type {
EventOutcome,
EventType,
GameState,
Nation,
NationStats,
Preset,
RelationStatus,
RoundItem,
StatKey,
} from '../shared/types';
import { EVENT_TYPES, RELATION_STATUSES } from '../shared/types';
@@ -18,10 +21,18 @@ import {
isDateLike,
makeEvent,
nationForPrompt,
type NationOp,
type TurnEventSpec,
type TurnResult,
} from '../shared/protocol';
import { DEFAULT_MAX_TOKENS, type LlmClient } from './llm';
import {
DEFAULT_MAX_TOKENS,
type ChatMessage,
type LlmClient,
type ToolDefinition,
type ToolExecutor,
type WireMessage,
} from './llm';
import { ADVISOR_MARKER } from './stub';
const VALID_EVENT_TYPES = new Set<string>(EVENT_TYPES);
@@ -29,13 +40,130 @@ const VALID_RELATIONS = new Set<string>(RELATION_STATUSES);
const VALID_OUTCOMES = new Set<string>(['success', 'failure', 'partial', 'neutral']);
const VALID_STATS = new Set<string>(['military', 'economy', 'stability', 'population']);
// --- The LLM's getNeighbours tool (v0.21, #16 P2: contiguous region transfers) ---
/**
* The single tool the turn loop exposes to the model: the precomputed region
* adjacency manifest (public/region-adjacency.json, via the resolver injected
* into runTurn). Given a set of region keys it returns the union of their
* bordering keys (the queried keys themselves excluded, sorted for
* determinism) — so the model can verify that a territory transfer is
* *contiguous* (a nation gains a region it already abuts) before committing
* it, instead of moving whole countries at a whim.
*/
export const GET_NEIGHBOURS_TOOL: ToolDefinition = {
type: 'function',
function: {
name: 'getNeighbours',
description:
'List the region keys that share a land border with any of the given region keys. ' +
'Pass a nation\'s territory keys (or a single region key) to see which regions are ' +
'contiguous to it. Use it before transferring territory: a nation can realistically ' +
'only gain regions that border its existing territory.',
parameters: {
type: 'object',
properties: {
regionKeys: {
type: 'array',
items: { type: 'string' },
description: 'One or more region keys to query (e.g. a gaining nation\'s territory).',
},
},
required: ['regionKeys'],
additionalProperties: false,
},
},
};
/**
* Build the tool executor for the turn loop. Never throws: unknown tool
* names, malformed arguments, and unknown region keys all degrade to a safe
* response (an error object or an empty list) that the model can recover from.
*/
export function makeNeighboursExecutor(
getNeighbours: (keys: string[]) => string[],
validRegionKeys?: ReadonlySet<string>,
): ToolExecutor {
return (name, args) => {
if (name !== GET_NEIGHBOURS_TOOL.function.name) {
return JSON.stringify({ error: `unknown tool: ${name}` });
}
const raw = Array.isArray(args.regionKeys) ? args.regionKeys : [];
const keys = raw.filter((k): k is string => typeof k === 'string' && k.length > 0);
const valid = validRegionKeys ? keys.filter((k) => validRegionKeys.has(k)) : keys;
if (valid.length === 0) return JSON.stringify({ neighbours: [] });
return JSON.stringify({ neighbours: getNeighbours(valid) });
};
}
/**
* The player's frontier: region keys owned by *other* nations that share a
* land border with the player's territory (deduped, sorted — stable order for
* the deterministic stub). Computed server-side from the adjacency manifest so
* both the LLM (the `frontier` field of the user prompt) and the stub (which
* cannot call tools) see the same candidates. Empty when there is no
* adjacency data or no controllable border (e.g. the UK in 1939).
*/
export function playerFrontier(
state: GameState,
getNeighbours: (keys: string[]) => string[],
): string[] {
const player = state.nations[state.playerNationId];
if (!player || player.territory.length === 0) return [];
const playerKeys = new Set(player.territory);
const candidates = new Set<string>();
for (const key of getNeighbours(player.territory)) {
if (!playerKeys.has(key)) candidates.add(key);
}
if (candidates.size === 0) return [];
const frontier: string[] = [];
for (const n of Object.values(state.nations)) {
if (n.id === state.playerNationId) continue;
for (const key of n.territory) {
if (candidates.has(key)) {
candidates.delete(key);
frontier.push(key);
}
}
}
return frontier.sort();
}
// --- Prompt building ----------------------------------------------------------
/** The LLM system prompt: world context + rules + a strict JSON contract. */
export function buildSystemPrompt(preset: Preset): string {
/**
* The LLM system prompt: world context + rules + a strict JSON contract.
* When `withNeighboursTool` is set (the turn runs with the getNeighbours tool
* available) the contract gains the contiguity rules for territory transfers
* (v0.21, #16 P2): the model may only move regions across a shared border, and
* may verify borders with the tool before answering. The contract also
* documents the `nationOps` proposal queue (v0.23, #16 P4a) — rename plus the
* split/merge shapes applied on player confirm (v0.24, #16 P4b).
*/
export function buildSystemPrompt(preset: Preset, withNeighboursTool = false): string {
const rules = preset.simulationRules
.map((r) => `- ${r}`)
.join('\n');
const respondLine = withNeighboursTool
? 'You have a getNeighbours tool: given region keys it returns the region keys that border them. You may call it (a few times) to verify land borders before deciding territory transfers. Once done, respond with ONLY a valid JSON object of exactly this shape. No prose, no commentary, no markdown fences, no trailing commas:'
: 'Respond with ONLY a valid JSON object of exactly this shape. No prose, no commentary, no markdown fences, no trailing commas:';
// (v0.22, #16 P3) No man's land: a region can be left unowned after a war or
// cataclysm (the model narrates the cause in "events" and lists the key in
// "unowned"); unowned regions can later be re-claimed with an ordinary gain.
// The model sees the current no-man's-land keys in the user payload's
// "unowned" field and in the "regions" reference table.
const noMansLandRule =
'- A region key has at most one owner at all times — never assign a key to two nations. After a war or cataclysm a region may be left unowned ("no man\'s land"): list its key in "unowned" and narrate the cause in "events"; it stays unowned (grey on the map) until a nation re-claims it with a "gain". The "unowned" field of the user message lists the regions currently in no man\'s land.';
const territoryRules = withNeighboursTool
? [
'- Territory changes must be contiguous: a nation may only GAIN region keys that share a land border with a region it already owns (verify with getNeighbours) and may only LOSE region keys it currently owns.',
'- The "frontier" field of the user message lists region keys owned by other nations that border the player\'s territory — the natural targets of a player-led conquest this turn.',
noMansLandRule,
]
: [
'- Only change borders when war or a decisive political shift justifies it.',
noMansLandRule,
];
return [
`WORLD: ${preset.title} — ${preset.startDate}`,
preset.worldBackground,
@@ -44,7 +172,7 @@ export function buildSystemPrompt(preset: Preset): string {
rules,
'',
'You are the world simulator. You advance the shared world state for ALL nations given the current state and the player\'s move.',
'Respond with ONLY a valid JSON object of exactly this shape. No prose, no commentary, no markdown fences, no trailing commas:',
respondLine,
'{',
' "date": "YYYY-MM-DD (a few days after the current date)",',
' "events": [',
@@ -52,25 +180,72 @@ export function buildSystemPrompt(preset: Preset): string {
' ],',
' "stateChanges": [{"nation":"<nationId>","stat":"<military|economy|stability|population>","op":"<set|add>","value":<0-100>}],',
' "relations": [{"a":"<nationId>","b":"<nationId>","set":"<ally|neutral|rival|hostile|war>"}],',
' "territoryChanges": [{"nation":"<nationId>","gain":["<ISO_A3>"],"lose":["<ISO_A3>"]}]',
' "territoryChanges": [{"nation":"<nationId>","gain":["<region key>"],"lose":["<region key>"]}],',
' "unowned": ["<region key>"],',
' "nationOps": [',
' {"kind":"rename","nationRef":"<nation id or name>","to":"<new name>"},',
' {"kind":"split","nationRef":"<nation id or name>","parts":[{"name":"<new name>","territory":["<region key>"]}]}',
' {"kind":"merge","nationRefs":["<id>","<id>"],"survivingRef":"<id of the surviving nation>","into":"<new name>"}',
' ],',
'}',
'',
'HARD CONSTRAINTS',
'- Use only nation ids and ISO_A3 codes that exist in the provided state.',
'- Use only nation ids and region keys that exist in the provided state.',
'- A region key identifies one sub-region; the "regions" table in the user message maps each key to "<region name> (<parent country ISO_A3>)". Use those keys in territoryChanges and unowned.',
'- List in "unowned" only region keys that a nation currently owns, and narrate each release in "events".',
'- Nation-management ops ("nationOps") are PROPOSALS: they only take effect if the player confirms them afterwards. Propose at most 1-2 per turn, only when the narrative justifies it, and narrate each one in "events".',
'- Rename: add {"kind":"rename","nationRef":"<nation id or name>","to":"<new name>"} for a revolution, regime change or reunification that changes a nation\'s name.',
'- Split: add {"kind":"split","nationRef":"<nation id or name>","parts":[{"name":"<new name>","territory":["<region key>"]}, ...]} when a state breaks up (dissolution, secession). Use at least 2 parts and assign each of the nation\'s region keys to at most one part — any key you leave unassigned goes to the first part.',
'- Merge: add {"kind":"merge","nationRefs":["<id or name>","<id or name>"],"survivingRef":"<id or name of the surviving nation>","into":"<new name>"} when states reunify or one is absorbed. Use at least 2 input nations and "survivingRef" must name one of them — the survivor keeps its id and its stats.',
'- Prefer 1-4 events per turn; keep each text 1-3 sentences.',
'- Keep your internal reasoning brief (a few sentences) and go straight to the JSON result; do not over-deliberate or re-derive facts already present in the state.',
'- Keep every stat value between 0 and 100.',
'- Only change borders when war or a decisive political shift justifies it.',
...territoryRules,
'- If a field is not relevant this turn, set it to an empty array.',
].join('\n');
}
/** The user message: a compact JSON snapshot + the player's action/chat. */
/**
* The user message: a compact JSON snapshot of the world plus the player's
* queued round (`items`) — the free-text actions and diplomatic messages to be
* simulated this period. `playerActions` is an LLM-friendly rendering of each
* item; the raw `pending` list is also emitted so the deterministic stub (and any
* other consumer) can read the exact items. The framing instruction tells the
* model to simulate the combined consequences of the whole batch (or to let the
* world advance on its own when the batch is empty) and return one TurnResult.
*/
export function buildUserPrompt(
state: GameState,
action?: string,
chat?: { to: string; message: string },
items: RoundItem[],
regionReference?: Record<string, string>,
/**
* The player's frontier: region keys owned by other nations that border the
* player's territory (v0.21, #16 P2). Emitted verbatim (even when empty) so
* the model — and the deterministic stub, which reads it — see the same
* contiguous targets. Omitted entirely when undefined (no adjacency data).
*/
frontier?: string[],
/**
* (v0.22, #16 P3) Region keys that are currently "no man's land" (released
* mid-game — `state.unowned`). Emitted verbatim (even when empty) so the
* model knows which unowned regions exist and can be re-claimed this turn.
* Omitted entirely when undefined.
*/
noMansLand?: string[],
): string {
const payload = {
const player = state.nations[state.playerNationId];
const playerName = player?.name ?? state.playerNationId;
const playerActions = items.map((i) =>
i.kind === 'action' ? i.text : { to: i.to ?? '', message: i.text },
);
const roundInstruction =
items.length > 0
? `This period the player (${playerName}) takes the following actions and sends the following diplomatic messages: ${JSON.stringify(
playerActions,
)}. Simulate the combined consequences across all nations and advance the world by one period. Return a single TurnResult.`
: 'The player takes no action this period; let the world advance on its own momentum. Return a single TurnResult.';
const payload: Record<string, unknown> = {
state: {
turn: state.turn,
date: state.date,
@@ -78,7 +253,7 @@ export function buildUserPrompt(
nations: Object.fromEntries(
Object.entries(state.nations).map(([id, n]) => [id, nationForPrompt(n)]),
),
recentEvents: state.events.slice(-10).map((e) => ({
recentEvents: state.events.slice(-5).map((e) => ({
turn: e.turn,
date: e.date,
nation: e.nation,
@@ -88,9 +263,13 @@ export function buildUserPrompt(
outcome: e.outcome,
})),
},
action: action ?? null,
chat: chat ?? null,
playerActions,
pending: items,
roundInstruction,
};
if (regionReference) payload.regions = regionReference;
if (frontier !== undefined) payload.frontier = frontier;
if (noMansLand !== undefined) payload.unowned = noMansLand;
return JSON.stringify(payload, null, 2);
}
@@ -151,6 +330,53 @@ function str(s: unknown, max = 0): string | null {
return max ? t.slice(0, max) : t;
}
/**
* Validate a raw (LLM) `nationOps` array into safe {@link NationOp} values
* (v0.23, #16 P4a). Defensive like the rest of the parser: entries with an
* unknown `kind` or missing/empty required fields are dropped, never throw.
* Rename: non-empty `nationRef` + `to` (each capped at 200 chars — resolution
* of `nationRef` to a concrete nation happens later, at confirm time). Split:
* non-empty `nationRef` + at least one part with a name. Merge: non-empty
* `nationRefs` (capped at 20) + `survivingRef` + `into`.
*/
export function validateNationOps(raw: unknown): NationOp[] {
if (!Array.isArray(raw)) return [];
const out: NationOp[] = [];
for (const e of raw) {
if (!e || typeof e !== 'object') continue;
const o = e as Record<string, unknown>;
if (o.kind === 'rename') {
const nationRef = str(o.nationRef, 200);
const to = str(o.to, 200);
if (nationRef && to) out.push({ kind: 'rename', nationRef, to });
} else if (o.kind === 'split') {
const nationRef = str(o.nationRef, 200);
const parts = (Array.isArray(o.parts) ? o.parts : [])
.filter((p): p is Record<string, unknown> => !!p && typeof p === 'object')
.map((p) => {
const name = str(p.name, 200);
const territory = Array.isArray(p.territory)
? p.territory.filter((k): k is string => typeof k === 'string' && k.trim() !== '')
: [];
return { name, territory };
})
.filter((p): p is { name: string; territory: string[] } => p.name !== null);
if (nationRef && parts.length > 0) out.push({ kind: 'split', nationRef, parts });
} else if (o.kind === 'merge') {
const nationRefs = (Array.isArray(o.nationRefs) ? o.nationRefs : [])
.map((x) => (typeof x === 'string' ? x.trim().slice(0, 200) : ''))
.filter((x) => x !== '')
.slice(0, 20);
const survivingRef = str(o.survivingRef, 200);
const into = str(o.into, 200);
if (nationRefs.length > 0 && survivingRef && into) {
out.push({ kind: 'merge', nationRefs, survivingRef, into });
}
}
}
return out;
}
/**
* Validate and normalize an arbitrary parsed object into a safe TurnResult.
* Ignores unknown/invalid entries; clamps numeric stats to 0-100. Returns null
@@ -165,6 +391,8 @@ export function validateTurnResult(input: unknown): TurnResult | null {
stateChanges: [],
relations: [],
territoryChanges: [],
unowned: [],
nationOps: [],
};
if (Array.isArray(o.events)) {
@@ -240,12 +468,38 @@ export function validateTurnResult(input: unknown): TurnResult | null {
}
}
// (v0.22, #16 P3) Keys released to "no man's land": deduped, non-empty
// strings only (applied later by applyTurnResult against validKeys).
if (Array.isArray(o.unowned)) {
for (const k of o.unowned) {
const s = typeof k === 'string' ? k.trim() : '';
if (s && !result.unowned.includes(s)) result.unowned.push(s);
}
}
// (v0.23, #16 P4a) Nation-management ops the LLM proposes this turn. These
// are NOT applied by the turn — applyTurnResult appends them to the pending
// list for the player to confirm/reject.
result.nationOps = validateNationOps(o.nationOps);
return result;
}
/** A turn is "meaningful" if it produced at least an event or a stat change. */
/**
* A turn is "meaningful" if it produced at least an event, a stat change, a
* no-man's-land release (v0.22 #16 P3: a release is a real world change even
* when the model under-narrates it), or a nation-op proposal (v0.23 #16 P4a:
* a proposal is a real pending-world change the player will resolve, so it
* must survive the retry/nudge path instead of being replaced by the generic
* "unclear" result).
*/
export function isMeaningful(result: TurnResult): boolean {
return result.events.length > 0 || result.stateChanges.length > 0;
return (
result.events.length > 0 ||
result.stateChanges.length > 0 ||
result.unowned.length > 0 ||
result.nationOps.length > 0
);
}
// --- Applying the delta -------------------------------------------------------
@@ -262,13 +516,20 @@ function genericUnclearEvent(state: GameState): TurnEventSpec {
/**
* Apply a TurnResult to a GameState immutably: advance the date/turn, append
* events, apply stat changes (clamped), symmetric relations, and territory moves.
* events, apply stat changes (clamped), symmetric relations, and territory
* moves (including no-man's-land releases, v0.22 #16 P3). It also appends any
* proposed nation-ops to the pending list (v0.23 #16 P4a) without applying
* them — see the doc comment on `pendingNationOps` for why that list
* deliberately survives across turns.
*/
export function applyTurnResult(state: GameState, result: TurnResult): GameState {
export function applyTurnResult(state: GameState, result: TurnResult, validKeys?: ReadonlySet<string>): GameState {
const next: GameState = JSON.parse(JSON.stringify(state));
next.version = (state.version ?? 0) + 1; // every mutation is a new revision
const actingTurn = state.turn; // this action resolves the current turn
next.turn = state.turn + 1; // then we advance to the next turn to play
next.date = isDateLike(result.date) ? result.date : addDays(state.date, 2);
// Committing a turn consumes the whole queued round — reset it for the next.
next.pending = [];
for (const ev of result.events) {
next.events.push(makeEvent(ev, actingTurn, next.date));
}
@@ -284,57 +545,468 @@ export function applyTurnResult(state: GameState, result: TurnResult): GameState
a.relations[r.b] = r.set;
b.relations[r.a] = r.set;
}
// --- Territory (v0.21, #16 P2: at most one owner per key;
// v0.22, #16 P3: a key may also be released to "no man's land") ---
//
// Two kinds of change, applied in this order:
//
// (1) RELEASES (`result.unowned`, v0.22 #16 P3): each key that a nation
// CURRENTLY owns (exactly one owner) is removed from that owner, left
// ownerless, and added to `GameState.unowned` — the client renders it
// as the distinct no-man's-land grey. A key with zero owners (a preset
// never assigned it) is never released: doing so would fabricate a
// visible no-man's-land out of an ordinary unowned region. A key with
// two or more owners (pre-existing corruption) is never touched, and
// a key already in `unowned` is a no-op (it is already unowned).
//
// (2) CLAIMS (`gain` entries), resolved against the ownership AFTER the
// releases (snapshot-first):
// - a key with exactly one owner that is not the gainer → a TRANSFER:
// removed from the old owner, granted to the gainer (v0.21 rules);
// - a key with NO owner → a RE-CLAIM: granted to the (sole) gainer and
// removed from `GameState.unowned` (it leaves no man's land);
// - a double claim (two or more distinct gainers) is rejected — the
// key stays as it is; a self-gain is a no-op; a pre-existing double
// ownership is never touched.
//
// Invariants after the turn: no key sits in two or more territories; a
// released key sits in none; `GameState.unowned` holds exactly the
// zero-owner keys that were released mid-game (not the preset-unassigned
// ones). "lose" entries remain deliberate no-ops: releasing is the
// `unowned` list's job, and a lone loss without a release would just
// orphan a key silently.
const valid = (k: string) => !validKeys || validKeys.has(k);
const unowned = new Set(state.unowned ?? []);
// (1) Releases: establish the new no-man's-land set before any claim.
for (const key of new Set(result.unowned)) {
if (!valid(key) || unowned.has(key)) continue;
const owners = Object.values(next.nations)
.filter((n) => n.territory.includes(key))
.map((n) => n.id);
if (owners.length !== 1) continue; // 0 owners (never assigned) or 2+ (corrupt): no-op
unowned.add(key);
next.nations[owners[0]].territory = next.nations[owners[0]].territory.filter((k) => k !== key);
}
// (2) Claims against the post-release ownership snapshot.
const ownerOf = new Map<string, string>(); // key -> sole owner id, or '' (2+ owners; 0 = absent)
for (const n of Object.values(next.nations)) {
for (const key of n.territory) {
if (!valid(key)) continue;
const cur = ownerOf.get(key);
if (cur === undefined) ownerOf.set(key, n.id);
else if (cur !== '') ownerOf.set(key, '');
}
}
// Claim pairs, deduped: one (key, gainer) per pair even if the model emits
// duplicate entries; two DIFFERENT gainers for one key is a double claim.
const claimPairs = new Set<string>();
for (const t of result.territoryChanges) {
const n = next.nations[t.nation];
if (!n) continue;
for (const code of t.gain) {
for (const other of Object.values(next.nations)) {
const i = other.territory.indexOf(code);
if (i !== -1) other.territory.splice(i, 1);
if (!next.nations[t.nation]) continue;
for (const key of new Set(t.gain)) {
if (!valid(key)) continue;
claimPairs.add(`${key}\u0000${t.nation}`);
}
if (!n.territory.includes(code)) n.territory.push(code);
}
for (const code of t.lose) {
const i = n.territory.indexOf(code);
const claimants = new Map<string, Set<string>>(); // key -> distinct gainers
for (const pair of claimPairs) {
const idx = pair.indexOf('\u0000');
const key = pair.slice(0, idx);
const gainer = pair.slice(idx + 1);
let set = claimants.get(key);
if (set === undefined) {
set = new Set();
claimants.set(key, set);
}
set.add(gainer);
}
for (const [key, claiming] of claimants) {
if (claiming.size !== 1) continue; // double claim: the key stays as it was
const gainer = [...claiming][0];
const owner = ownerOf.get(key); // undefined: no owner; '': 2+ owners (corrupt)
if (owner === '') continue; // pre-existing double ownership: never touched
if (owner !== undefined && owner === gainer) continue; // self-gain: no-op
for (const n of Object.values(next.nations)) {
const i = n.territory.indexOf(key);
if (i !== -1) n.territory.splice(i, 1);
}
next.nations[gainer].territory.push(key);
unowned.delete(key); // re-claimed: the key leaves no man's land
}
next.unowned = [...unowned];
// (v0.23, #16 P4a) Nation-op proposals are NOT applied by the turn — they
// are appended to the pending list, which (unlike `pending`) SURVIVES
// across turns until the player confirms or rejects each one. `next` is a
// deep clone of `state`, so `next.pendingNationOps` is a copy of whatever
// the state already held (or undefined for a legacy row) — start from that
// and append the new proposals, defaulting a missing field to `[]`.
next.pendingNationOps = [...(next.pendingNationOps ?? []), ...result.nationOps];
return next;
}
/**
* Run one turn end-to-end against the (injectable) LLM: build prompts, call the
* model, parse/validate, retry once with a nudge if invalid, and — if it is still
* invalid — emit a generic "unclear" event and advance. Never throws on bad
* model output; only the underlying transport/network can throw.
* Immutably queue one item onto a round: append it to `pending` and return a new
* state. This never advances the turn or the date — that only happens when a
* round is committed via runTurn. Bumps `version` (a new revision, so stale SSE
* snapshots can never clobber it client-side). Exported so the append-without-
* advance behavior is unit-testable, and reused by the /action and /diplomacy
* routes.
*/
export function queueRoundItem(state: GameState, item: RoundItem): GameState {
const next: GameState = JSON.parse(JSON.stringify(state));
next.version = (state.version ?? 0) + 1;
next.pending.push(item);
return next;
}
/**
* Immutably remove one item from the pending round by index and return a new
* state (bumping `version`). Returns `null` when the index is missing or not a
* valid, in-bounds integer position, so the route can answer 400 without
* mutating anything. Reused by the server's /queue/remove route.
*/
export function removeRoundItem(state: GameState, index: number | undefined): GameState | null {
if (index === undefined || !Number.isInteger(index) || index < 0 || index >= state.pending.length) {
return null;
}
const next: GameState = JSON.parse(JSON.stringify(state));
next.version = (state.version ?? 0) + 1;
next.pending.splice(index, 1);
return next;
}
// --- Nation-management ops (v0.23, #16 P4a: the hybrid "LLM proposes,
// player confirms" model) ----------------------------------------------------
//
// A NationOp proposed by a turn lands in `GameState.pendingNationOps` (see
// applyTurnResult) and waits there across turns. These functions resolve the
// player's decision on one pending proposal, by index. Like removeRoundItem
// they are pure: clone the state, mutate the clone, bump `version` once,
// return the new state — and return `null` for a bad index so the route can
// answer 400 without mutating anything.
/** True when `index` is a valid, in-bounds integer position in the pending list. */
function validPendingOpIndex(state: GameState, index: number): boolean {
const len = state.pendingNationOps?.length ?? 0;
return Number.isInteger(index) && index >= 0 && index < len;
}
/**
* Resolve a nation reference (the `nationRef` of a NationOp — the LLM may
* write either the nation's stable `id` or its human-readable `name`) to a
* concrete nation id: an exact id match wins, then a unique case-insensitive
* name match. Returns `null` when the reference is empty, unknown, or
* ambiguous (two or more nations share that name) — every caller treats
* `null` as "no-op" and nothing here ever throws.
*/
export function resolveNationRef(state: GameState, ref: string): string | null {
const r = (ref ?? '').trim();
if (!r) return null;
if (state.nations[r]) return r; // exact id first
const matches = Object.values(state.nations).filter(
(n) => n.name.trim().toLowerCase() === r.toLowerCase(),
);
return matches.length === 1 ? matches[0].id : null;
}
/**
* Generate a fresh, unused nation id for a newly created nation (split
* parts, v0.24 #16 P4b): the first free of `n1`, `n2`, ... The caller adds
* each id it creates to `taken` as it goes, so ids stay unique within an
* op and are never reused from a removed nation.
*/
export function freshNationId(taken: ReadonlySet<string>): string {
for (let i = 1; ; i++) {
const id = `n${i}`;
if (!taken.has(id)) return id;
}
}
/**
* The baseline stats a freshly created nation starts with (split parts,
* v0.24 #16 P4b) — a neutral middle-of-the-scale profile, deliberately NOT
* a copy of the parent's stats (a small rump state is not the parent's
* military power).
*/
export const NEW_NATION_STATS: NationStats = {
military: 50,
economy: 50,
stability: 50,
population: 50,
};
/**
* Defensive cleanup after nations are removed (merge, v0.24 #16 P4b): drop
* the removed nations' ids from every remaining nation's `relations` map so
* no key dangles. (The client already degrades gracefully on a missing
* target, but consistent data is cleaner.)
*/
function dropRelationsTo(state: GameState, removedIds: ReadonlySet<string>): void {
for (const n of Object.values(state.nations)) {
for (const id of removedIds) {
if (id in n.relations) delete n.relations[id];
}
}
}
/**
* Apply one NationOp to a state, MUTATING the passed object in place (the
* caller passes a clone — confirmNationOp does) and NOT bumping `version`
* (the route-level functions do that once per decision). It never throws:
* any unresolvable reference or malformed op is a silent no-op (the op is
* still removed by confirmNationOp — the world simply doesn't change).
*
* - **rename** (v0.23, #16 P4a): changes only `Nation.name` — the id, its
* territory, its relations (keyed by id), and the player pointer all stay
* valid, so nothing downstream breaks; a player-supplied `edits.name`
* overrides the proposed `to` (an empty edit falls back to the proposal's
* own name).
*
* - **split** (v0.24, #16 P4b): the `nationRef` must resolve and there must
* be at least two named parts, else no-op. Parts are processed in order;
* each receives the region keys of its `territory` that (a) the parent
* owns and (b) no earlier part claimed — the first part to name a key
* wins. Keys of the parent's territory that no part claimed go to part 0
* (in the parent's `territory` order), so the parent's territory is fully
* partitioned — no key is lost or ever held twice. Each part gets a
* FRESH id (`freshNationId`) and the baseline `NEW_NATION_STATS` (not a
* copy of the parent's), plus a copy of the parent's relations; the
* parent is then removed. If the parent was the player's nation,
* `playerNationId` moves to the chosen part (`edits.playerPart`, clamped
* into range, default 0); `edits.name` renames that same chosen part.
*
* - **merge** (v0.24, #16 P4b): every input ref plus the survivor ref must
* resolve, at least two inputs must resolve to DISTINCT nations, and the
* survivor must be one of them — else no-op. The survivor keeps its id,
* keeps its own stats, gains the union of all inputs' territories
* (survivor's keys first, then each other input's unclaimed keys in its
* own order), and gains a union of the inputs' relations (on a third
* party the survivor's own view wins, else the first input's). The other
* inputs are removed (their ids dropped from everyone else's relations
* maps), and if the player led a removed input, `playerNationId` moves to
* the survivor. The merged name is `edits.name` (if non-empty), else
* `op.into`, else the survivor's current name.
*/
export function applyNationOp(
state: GameState,
op: NationOp,
edits?: { name?: string; playerPart?: number },
): void {
if (op.kind === 'rename') {
const id = resolveNationRef(state, op.nationRef);
if (id === null) return; // invalid/ambiguous ref: no-op
const n = state.nations[id];
if (!n) return;
const name = (edits?.name ?? '').trim() || op.to.trim();
if (name) n.name = name;
return;
}
if (op.kind === 'split') {
const id = resolveNationRef(state, op.nationRef);
if (id === null || op.parts.length < 2) return; // invalid ref / not enough parts: no-op
const parent = state.nations[id];
if (!parent) return;
const taken = new Set(Object.keys(state.nations));
const created: string[] = [];
const claimed = new Set<string>();
for (const part of op.parts) {
const newId = freshNationId(taken);
taken.add(newId);
const keys = (part.territory ?? [])
.filter((k) => parent.territory.includes(k) && !claimed.has(k));
for (const k of keys) claimed.add(k);
const partNation: Nation = {
id: newId,
type: parent.type, // a part keeps the parent's form of state
name: part.name,
stats: { ...NEW_NATION_STATS },
territory: keys,
relations: { ...parent.relations },
};
state.nations[newId] = partNation;
created.push(newId);
}
// Keys the parent owned but no part claimed go to part 0 (in the
// parent's territory order) — nothing is lost or duplicated.
for (const k of parent.territory) {
if (!claimed.has(k)) state.nations[created[0]].territory.push(k);
}
// The player chooses which part is its successor (edits.playerPart,
// clamped into range; default 0) — only relevant when the parent was
// the player's nation; the same part also gets a player-edited name.
const partIdx =
Math.min(Math.max(edits?.playerPart ?? 0, 0), created.length - 1);
if (state.playerNationId === id) state.playerNationId = created[partIdx];
const editedName = (edits?.name ?? '').trim();
if (editedName) state.nations[created[partIdx]].name = editedName;
delete state.nations[id];
dropRelationsTo(state, new Set([id]));
return;
}
// merge
const resolved: string[] = [];
for (const ref of op.nationRefs) {
const rid = resolveNationRef(state, ref);
if (rid === null) return; // any unresolvable input: no-op
resolved.push(rid);
}
const inputIds = new Set(resolved);
const survivorId = resolveNationRef(state, op.survivingRef);
if (survivorId === null || !inputIds.has(survivorId) || inputIds.size < 2) return;
const survivor = state.nations[survivorId];
if (!survivor) return;
// Territory: the union of all inputs — the survivor's keys first (stable
// order), then each other input's unclaimed keys in its own order.
const territory = [...survivor.territory];
const seen = new Set(territory);
for (const rid of resolved) {
for (const k of state.nations[rid].territory) {
if (!seen.has(k)) {
seen.add(k);
territory.push(k);
}
}
}
// Relations: the union of all inputs' relations; the first input to name a
// third party sets it, then the survivor's own view overwrites per key.
const relations: Record<string, RelationStatus> = {};
for (const rid of resolved) {
for (const [other, status] of Object.entries(state.nations[rid].relations)) {
if (other === survivorId) continue; // never relate to oneself
if (!(other in relations)) relations[other] = status;
}
}
for (const [other, status] of Object.entries(survivor.relations)) {
if (other !== survivorId) relations[other] = status;
}
const removed = new Set<string>();
for (const rid of inputIds) {
if (rid === survivorId) continue;
delete state.nations[rid];
removed.add(rid);
}
if (state.playerNationId !== survivorId && removed.has(state.playerNationId)) {
state.playerNationId = survivorId;
}
const name = (edits?.name ?? '').trim() || op.into.trim() || survivor.name;
if (name) survivor.name = name;
survivor.territory = territory;
survivor.relations = relations;
dropRelationsTo(state, removed);
}
/**
* Confirm a pending nation-op proposal by index: apply it (a rename takes
* effect, optionally with a player-edited name; a split partitions the
* nation's territory into the new parts, the player picking which part is
* its successor via `edits.playerPart`; a merge folds the inputs into the
* survivor, optionally renamed via `edits.name`) and remove it from
* `pendingNationOps`, bumping `version`. Returns `null` for an invalid
* index, so the route answers 400 without mutating. Reused by the
* /nation-op/confirm route.
*/
export function confirmNationOp(
state: GameState,
index: number,
edits?: { name?: string; playerPart?: number },
): GameState | null {
if (!validPendingOpIndex(state, index)) return null;
const next: GameState = JSON.parse(JSON.stringify(state));
next.version = (state.version ?? 0) + 1;
const op = next.pendingNationOps[index];
applyNationOp(next, op, edits);
next.pendingNationOps.splice(index, 1);
return next;
}
/**
* Reject (drop) a pending nation-op proposal by index without applying it,
* bumping `version`. Returns `null` for an invalid index, so the route
* answers 400 without mutating. Reused by the /nation-op/reject route.
*/
export function rejectNationOp(state: GameState, index: number): GameState | null {
if (!validPendingOpIndex(state, index)) return null;
const next: GameState = JSON.parse(JSON.stringify(state));
next.version = (state.version ?? 0) + 1;
next.pendingNationOps.splice(index, 1);
return next;
}
/**
* Run one turn end-to-end against the (injectable) LLM: build prompts, parse/
* validate, retry once with a nudge if the result is empty/invalid, and — if
* it is still invalid — emit a generic "unclear" event and advance. The
* committed state has `pending` cleared. Never throws on bad model output;
* only the underlying transport/network can throw.
*
* When `getNeighbours` is provided AND the LLM client implements
* `chatWithTools` (v0.21, #16 P2), the turn runs the bounded function-
* calling loop with the getNeighbours tool (the model may verify land
* borders before committing a territory transfer) and the user prompt gains
* the player's `frontier` field. Otherwise it falls back to a plain chat()
* call — same as before the tool existed.
*/
export async function runTurn(opts: {
llm: LlmClient;
preset: Preset;
state: GameState;
action?: string;
chat?: { to: string; message: string };
items: RoundItem[];
/** Region reference table (key -> "name (parent)") to include in the user prompt. */
regionReference?: Record<string, string>;
/** Set of valid region keys; territory changes with other keys are ignored. */
validRegionKeys?: ReadonlySet<string>;
/**
* Region adjacency resolver (keys -> bordering keys, from the precomputed
* manifest). Its presence (together with the client's chatWithTools)
* switches the turn onto the getNeighbours tool path.
*/
getNeighbours?: (keys: string[]) => string[];
}): Promise<{ state: GameState; result: TurnResult }> {
const { llm, preset, state, action, chat } = opts;
const system = buildSystemPrompt(preset);
const user = buildUserPrompt(state, action, chat);
const { llm, preset, state, items, regionReference, validRegionKeys, getNeighbours } = opts;
const chatWithTools = llm.chatWithTools;
const useTools = getNeighbours !== undefined && chatWithTools !== undefined;
const system = buildSystemPrompt(preset, useTools);
const frontier = getNeighbours ? playerFrontier(state, getNeighbours) : undefined;
// (v0.22, #16 P3) the model always sees the current no-man's-land keys (empty
// list on a fresh game) so it knows which unowned regions can be re-claimed.
const user = buildUserPrompt(state, items, regionReference, frontier, state.unowned ?? []);
const nudge =
'Your previous output was invalid. Respond with ONLY the JSON object described above for this batch — no prose, no fences.';
let result = parseTurnResult(await llm.chat([
/**
* One model call with the standard turn sampling: the bounded
* function-calling loop when available, else a plain chat(). The nudge
* re-send below always starts a FRESH history (no tool context carried
* over).
*/
const call = async (history: WireMessage[]): Promise<string> => {
if (useTools) {
return await chatWithTools(
history,
[GET_NEIGHBOURS_TOOL],
makeNeighboursExecutor(getNeighbours, validRegionKeys),
{ temperature: 0.4, maxTokens: DEFAULT_MAX_TOKENS },
);
}
return llm.chat(history as ChatMessage[], { temperature: 0.4, maxTokens: DEFAULT_MAX_TOKENS });
};
let result = parseTurnResult(await call([
{ role: 'system', content: system },
{ role: 'user', content: user },
], { temperature: 0.4, maxTokens: DEFAULT_MAX_TOKENS }));
]));
if (result === null || !isMeaningful(result)) {
result = parseTurnResult(await llm.chat([
result = parseTurnResult(await call([
{ role: 'system', content: system },
{ role: 'user', content: user },
{ role: 'assistant', content: '' },
{
role: 'user',
content:
'Your previous output was invalid. Respond with ONLY the JSON object described above — no prose, no fences.',
},
], { temperature: 0.4, maxTokens: DEFAULT_MAX_TOKENS }));
{ role: 'user', content: nudge },
]));
}
if (result === null || !isMeaningful(result)) {
@@ -344,10 +1016,12 @@ export async function runTurn(opts: {
stateChanges: [],
relations: [],
territoryChanges: [],
unowned: [],
nationOps: [],
};
}
return { state: applyTurnResult(state, result), result };
return { state: applyTurnResult(state, result, validRegionKeys), result };
}
// --- Advisor (brainstorm) -----------------------------------------------------
+135 -30
View File
@@ -9,12 +9,20 @@ import path from 'node:path';
import { fileURLToPath } from 'node:url';
import { deepClone } from '../shared/protocol';
import type { CreateGameRequest, TurnRequest } from '../shared/protocol';
import type {
AddActionRequest,
AddDiplomacyRequest,
ConfirmNationOpRequest,
CreateGameRequest,
RejectNationOpRequest,
RemoveQueueItemRequest,
} from '../shared/protocol';
import type { GameState } from '../shared/types';
import { createLlmClient } from './llm';
import { makeStubLlmClient } from './stub';
import { askAdvisor, runTurn } from './engine';
import { askAdvisor, confirmNationOp, queueRoundItem, rejectNationOp, removeRoundItem, runTurn } from './engine';
import { buildRegionMap } from './map';
import { allTerritoryKeys, expandCountriesToKeys, hasAdjacency, loadRegions, neighboursOf, referenceForKeys, validKeys } from './regions';
import { createPresetStore } from './presets';
import { openDb, type Db } from './db';
@@ -44,6 +52,9 @@ const dataDir = process.env.DATA_DIR ?? path.join(root, 'data');
// the e2e config, so honor it as a fallback to keep all three in agreement.
const PORT = parseInt(process.env.PORT ?? process.env.HISTORY_API_PORT ?? '4321', 10);
const presetStore = createPresetStore(presetsDir);
// Load the region-key manifest + geo once at boot (v0.19 #16 P1). A missing file
// just means region expansion/reference degrade to the raw keys (server still boots).
loadRegions(root);
const db: Db = openDb(path.join(dataDir, 'history.db'));
// LLM_STUB=1 → deterministic stub (tests/e2e/dev without a live model).
const useStub = process.env.LLM_STUB === '1';
@@ -113,7 +124,21 @@ app.post('/api/games', (req: Request, res) => {
date: preset.startDate,
nations: Object.fromEntries(preset.nations.map((n) => [n.id, deepClone(n)])),
events: [],
pending: [],
version: 1, // the first saved revision; every later mutation bumps it
// (v0.22, #16 P3) No man's land can only arise mid-game — a fresh game
// starts with nothing released; this list grows as the LLM releases
// regions and shrinks as they get re-claimed.
unowned: [],
// (v0.23, #16 P4a) No pending nation-op proposals on a fresh game; the
// list grows as the LLM proposes renames (and, later, splits/merges) and
// shrinks as the player confirms or rejects them.
pendingNationOps: [],
};
// v0.19 (#16 P1): expand each nation's ISO_A3 country list to the region keys
// of all its sub-regions, so ownership (and the choropleth) is at region
// granularity from the very first turn. Preset JSONs stay country-level.
for (const n of Object.values(state.nations)) n.territory = expandCountriesToKeys(n.territory);
db.save(state);
res.json({ game: state });
});
@@ -149,46 +174,126 @@ app.get('/api/games/:id/map', (req, res) => {
res.json({ regions: buildRegionMap(game) });
});
async function handleTurn(id: string, body: TurnRequest): Promise<{ state: GameState; result: unknown }> {
// Delete a saved game entirely. Fast, non-LLM. 404 if it doesn't exist; on
// success broadcast an SSE `error` to any other open tab watching it so it
// returns home (see the `event: error` handling in src/lib/sse.ts).
app.delete('/api/games/:id', (req, res) => {
const id = req.params.id;
const removed = db.delete(id);
if (!removed) return res.status(404).json({ error: 'game not found' });
broadcast(id, 'error', { message: 'game deleted' });
res.json({ deleted: true });
});
// Queue a free-text player action onto the pending round. No LLM call and no
// turn advance — the round is only committed (in one turn) by "Jump forward".
app.post('/api/games/:id/action', (req, res) => {
const id = req.params.id;
const game = db.load(id);
if (!game) throw new Error('not_found');
if (!game) return res.status(404).json({ error: 'game not found' });
const text = (req.body as AddActionRequest | undefined)?.text?.trim();
if (!text) return res.status(400).json({ error: 'empty action' });
const next = queueRoundItem(game, { kind: 'action', text });
db.save(next);
broadcast(id, 'state', { state: next });
res.json({ game: next });
});
// Queue a diplomatic message to a target nation onto the pending round. No LLM
// call and no advance.
app.post('/api/games/:id/diplomacy', (req, res) => {
const id = req.params.id;
const game = db.load(id);
if (!game) return res.status(404).json({ error: 'game not found' });
const body = (req.body ?? {}) as AddDiplomacyRequest;
const message = body.message?.trim();
if (!body.to || !message) return res.status(400).json({ error: 'empty message' });
const next = queueRoundItem(game, { kind: 'diplomacy', to: body.to, text: message });
db.save(next);
broadcast(id, 'state', { state: next });
res.json({ game: next });
});
// Remove one item from the pending round, by its index in `game.pending`. No
// LLM call, no turn advance — same fast save → broadcast → respond order as the
// add routes above. The mutated state bumps `version`, so clients (which apply
// states "never go backwards") always reconcile to it.
app.post('/api/games/:id/queue/remove', (req, res) => {
const id = req.params.id;
const game = db.load(id);
if (!game) return res.status(404).json({ error: 'game not found' });
const index = (req.body as RemoveQueueItemRequest | undefined)?.index;
const next = removeRoundItem(game, index);
if (!next) return res.status(400).json({ error: 'invalid queue index' });
db.save(next);
broadcast(id, 'state', { state: next });
res.json({ game: next });
});
// (v0.23, #16 P4a; v0.24, #16 P4b) Resolve a pending nation-op proposal
// waiting in game.pendingNationOps: a rename takes effect (body.edits.name
// may override the proposed name), a split partitions the nation's territory
// into the proposed parts (body.edits.playerPart picks which part the player
// leads, default 0), and a merge folds its inputs into the survivor
// (body.edits.name may override the merged name). No LLM call, no turn
// advance — same fast save → broadcast → respond order as /queue/remove.
// The version bump lets "never go backwards" clients reconcile.
app.post('/api/games/:id/nation-op/confirm', (req, res) => {
const id = req.params.id;
const game = db.load(id);
if (!game) return res.status(404).json({ error: 'game not found' });
const body = (req.body ?? {}) as ConfirmNationOpRequest;
const next = confirmNationOp(game, body.index, body.edits);
if (!next) return res.status(400).json({ error: 'invalid proposal index' });
db.save(next);
broadcast(id, 'state', { state: next });
res.json({ game: next });
});
app.post('/api/games/:id/nation-op/reject', (req, res) => {
const id = req.params.id;
const game = db.load(id);
if (!game) return res.status(404).json({ error: 'game not found' });
const body = (req.body ?? {}) as RejectNationOpRequest;
const next = rejectNationOp(game, body.index);
if (!next) return res.status(400).json({ error: 'invalid proposal index' });
db.save(next);
broadcast(id, 'state', { state: next });
res.json({ game: next });
});
// Jump forward: commit the whole pending round (or an empty one) to the model
// in a single turn. applyTurnResult clears the pending queue on the returned
// state. 404 for not-found/preset-missing; 502 for LLM/model (transport) errors.
app.post('/api/games/:id/jump', async (req, res) => {
const id = req.params.id;
const game = db.load(id);
if (!game) return res.status(404).json({ error: 'game not found' });
const preset = presetStore.get(game.presetId);
if (!preset) throw new Error('preset_missing');
if (!preset) return res.status(404).json({ error: 'preset_missing' });
try {
const { state, result } = await runTurn({
llm,
preset,
state: game,
action: body?.action,
chat: body?.chat,
items: game.pending,
// (v0.22, #16 P3) the region reference table must also cover released
// (no-man's-land) keys — they belong to no nation's territory, but the
// model needs their names to re-claim them.
regionReference: referenceForKeys(
new Set([...allTerritoryKeys(game), ...(game.unowned ?? [])]),
),
validRegionKeys: validKeys(),
// v0.21 (#16 P2): when the region-adjacency manifest loaded, hand the
// engine the resolver — the turn then runs with the LLM's getNeighbours
// tool and the player-frontier prompt field (both switch off without it).
getNeighbours: hasAdjacency() ? (keys) => neighboursOf(keys) : undefined,
});
db.save(state);
broadcast(id, 'turn', { state, result });
return { state, result };
}
app.post('/api/games/:id/turn', async (req, res) => {
try {
const { state, result } = await handleTurn(req.params.id, req.body as TurnRequest);
res.json({ state, result });
} catch (e) {
const msg = e instanceof Error ? e.message : String(e);
if (msg === 'not_found' || msg === 'preset_missing') {
return res.status(404).json({ error: msg });
}
res.status(502).json({ error: `turn failed: ${msg}` });
}
});
app.post('/api/games/:id/jump', async (req, res) => {
try {
// Jump forward = a turn with no player action (auto-simulate the world).
const { state, result } = await handleTurn(req.params.id, {});
res.json({ state, result });
} catch (e) {
const msg = e instanceof Error ? e.message : String(e);
if (msg === 'not_found' || msg === 'preset_missing') {
return res.status(404).json({ error: msg });
}
res.status(502).json({ error: `jump failed: ${msg}` });
}
});
+336 -22
View File
@@ -1,4 +1,4 @@
import { describe, expect, it } from 'vitest';
import { afterEach, describe, expect, it, vi } from 'vitest';
import { createLlmClient, DEFAULT_MAX_TOKENS } from './llm';
function json(body: unknown) {
@@ -10,42 +10,88 @@ function json(body: unknown) {
} as unknown as Response;
}
function httpError(status: number, text = 'upstream down') {
return {
ok: false,
status,
text: async () => text,
json: async () => ({}),
} as unknown as Response;
}
afterEach(() => {
vi.restoreAllMocks();
});
describe('createLlmClient (injectable transport)', () => {
it('chat posts model+messages to {base}/chat/completions and returns content', async () => {
const calls: { url: string; init?: RequestInit }[] = [];
const sent: { url: string; init?: RequestInit }[] = [];
const transport = async (url: string, init?: RequestInit) => {
calls.push({ url, init });
sent.push({ url, init });
return json({ choices: [{ message: { content: 'hello back' } }] });
};
const llm = createLlmClient({ transport, apiBase: 'http://x/v1/', model: 'm1' });
const out = await llm.chat([{ role: 'user', content: 'hi' }], { maxTokens: 10, temperature: 0.5 });
expect(out).toBe('hello back');
expect(calls[0].url).toBe('http://x/v1/chat/completions'); // trailing slash normalized
const body = JSON.parse(calls[0].init!.body as string);
expect(sent[0].url).toBe('http://x/v1/chat/completions'); // trailing slash normalized
const body = JSON.parse(sent[0].init!.body as string);
// The wire key is `max_tokens` (snake_case), never camelCase `maxTokens`.
expect(body).toEqual({
model: 'm1',
messages: [{ role: 'user', content: 'hi' }],
temperature: 0.5,
max_tokens: 10,
reasoning_effort: 'low',
});
// No auth header: the live vLLM endpoint requires no API key.
expect(calls[0].init!.headers).toEqual({ 'content-type': 'application/json' });
expect(sent[0].init!.headers).toEqual({ 'content-type': 'application/json' });
});
it('chat uses a generous default max_tokens when the caller omits it', async () => {
const calls: { url: string; init?: RequestInit }[] = [];
const sent: { url: string; init?: RequestInit }[] = [];
const transport = async (url: string, init?: RequestInit) => {
calls.push({ url, init });
sent.push({ url, init });
return json({ choices: [{ message: { content: 'ok' } }] });
};
const llm = createLlmClient({ transport, apiBase: 'http://x/v1', model: 'm1' });
await llm.chat([{ role: 'user', content: 'hi' }]);
const body = JSON.parse(calls[0].init!.body as string);
const body = JSON.parse(sent[0].init!.body as string);
expect(body.max_tokens).toBe(DEFAULT_MAX_TOKENS);
expect(body.max_tokens).toBe(4000);
});
it('chat sends reasoning_effort "low" by default', async () => {
const sent: { url: string; init?: RequestInit }[] = [];
const transport = async (url: string, init?: RequestInit) => {
sent.push({ url, init });
return json({ choices: [{ message: { content: 'ok' } }] });
};
const llm = createLlmClient({ transport, apiBase: 'http://x/v1', model: 'm1' });
await llm.chat([{ role: 'user', content: 'hi' }]);
const body = JSON.parse(sent[0].init!.body as string);
expect(body.reasoning_effort).toBe('low');
});
it('chat omits reasoning_effort when it is "off" or empty', async () => {
const sent: { url: string; init?: RequestInit }[] = [];
const transport = async (url: string, init?: RequestInit) => {
sent.push({ url, init });
return json({ choices: [{ message: { content: 'ok' } }] });
};
for (const effort of ['off', 'OFF', '']) {
sent.length = 0;
const llm = createLlmClient({
transport,
apiBase: 'http://x/v1',
model: 'm1',
reasoningEffort: effort,
});
await llm.chat([{ role: 'user', content: 'hi' }]);
const body = JSON.parse(sent[0].init!.body as string);
expect(body.reasoning_effort, `effort=${JSON.stringify(effort)}`).toBeUndefined();
}
});
it('listModels returns data[].id from GET {base}/models', async () => {
const transport = async (url: string) => {
expect(url).toBe('http://x/v1/models');
@@ -55,21 +101,289 @@ describe('createLlmClient (injectable transport)', () => {
expect(await llm.listModels()).toEqual(['a', 'b']);
});
it('chat throws on non-2xx with the HTTP status in the message', async () => {
const transport = async () =>
({
ok: false,
status: 503,
text: async () => 'upstream down',
json: async () => ({}),
} as unknown as Response);
const llm = createLlmClient({ transport, apiBase: 'http://x/v1', model: 'm' });
await expect(llm.chat([{ role: 'user', content: 'hi' }])).rejects.toThrow(/HTTP 503/);
it('chat retries 5xx and succeeds once the transport recovers (500, 500 → 200)', async () => {
const sent: { url: string; init?: RequestInit }[] = [];
const transport = async (url: string, init?: RequestInit) => {
sent.push({ url, init });
if (sent.length < 3) return httpError(500);
return json({ choices: [{ message: { content: 'recovered' } }] });
};
const llm = createLlmClient({ transport, apiBase: 'http://x/v1', model: 'm', retryBaseDelayMs: 1 });
const out = await llm.chat([{ role: 'user', content: 'hi' }]);
expect(out).toBe('recovered');
expect(sent).toHaveLength(3); // two failures, then success on the third attempt
});
it('chat throws when the response has no content', async () => {
const transport = async () => json({ choices: [] });
const llm = createLlmClient({ transport, apiBase: 'http://x/v1', model: 'm' });
it('chat gives up after exactly 3 attempts when the transport always returns 5xx', async () => {
const sent: { url: string; init?: RequestInit }[] = [];
const transport = async (url: string, init?: RequestInit) => {
sent.push({ url, init });
return httpError(500, 'still down');
};
const llm = createLlmClient({ transport, apiBase: 'http://x/v1', model: 'm', retryBaseDelayMs: 1 });
await expect(llm.chat([{ role: 'user', content: 'hi' }])).rejects.toThrow(/HTTP 500/);
expect(sent).toHaveLength(3);
});
it('chat does not retry on 4xx (deterministic client error → first attempt only)', async () => {
const sent: { url: string; init?: RequestInit }[] = [];
const transport = async (url: string, init?: RequestInit) => {
sent.push({ url, init });
return httpError(400, 'bad request');
};
const llm = createLlmClient({ transport, apiBase: 'http://x/v1', model: 'm', retryBaseDelayMs: 1 });
await expect(llm.chat([{ role: 'user', content: 'hi' }])).rejects.toThrow(/HTTP 400/);
expect(sent).toHaveLength(1);
});
it('chat retries a null content (truncation) and then succeeds (null → content)', async () => {
const sent: { url: string; init?: RequestInit }[] = [];
const transport = async (url: string, init?: RequestInit) => {
sent.push({ url, init });
if (sent.length === 1) return json({ choices: [{ message: { content: null } }] });
return json({ choices: [{ message: { content: 'real content' } }] });
};
const llm = createLlmClient({ transport, apiBase: 'http://x/v1', model: 'm', retryBaseDelayMs: 1 });
const out = await llm.chat([{ role: 'user', content: 'hi' }]);
expect(out).toBe('real content');
expect(sent).toHaveLength(2);
});
it('chat rejects with the HTTP status after 3 attempts when 5xx never recovers', async () => {
const sent: { url: string; init?: RequestInit }[] = [];
const transport = async (url: string, init?: RequestInit) => {
sent.push({ url, init });
return httpError(503);
};
const llm = createLlmClient({ transport, apiBase: 'http://x/v1', model: 'm', retryBaseDelayMs: 1 });
await expect(llm.chat([{ role: 'user', content: 'hi' }])).rejects.toThrow(/HTTP 503/);
expect(sent).toHaveLength(3);
});
it('chat rejects with a content error after 3 attempts when content is never present', async () => {
const sent: { url: string; init?: RequestInit }[] = [];
const transport = async (url: string, init?: RequestInit) => {
sent.push({ url, init });
return json({ choices: [] });
};
const llm = createLlmClient({ transport, apiBase: 'http://x/v1', model: 'm', retryBaseDelayMs: 1 });
await expect(llm.chat([{ role: 'user', content: 'hi' }])).rejects.toThrow(/no choices/);
expect(sent).toHaveLength(3);
});
it('chat logs one line on success and one on final failure', async () => {
const logSpy = vi.spyOn(console, 'log');
const errorSpy = vi.spyOn(console, 'error');
const okTransport = async () =>
json({ choices: [{ message: { content: 'ok' }, finish_reason: 'stop' }] });
const okLlm = createLlmClient({ transport: okTransport, apiBase: 'http://x/v1', model: 'm' });
await okLlm.chat([{ role: 'user', content: 'hi' }]);
expect(logSpy).toHaveBeenCalledWith(
'[llm] chat ok',
expect.objectContaining({ ms: expect.any(Number), finishReason: 'stop' }),
);
const failSent: { url: string; init?: RequestInit }[] = [];
const failTransport = async (url: string, init?: RequestInit) => {
failSent.push({ url, init });
return httpError(502, 'bad gateway');
};
const failLlm = createLlmClient({
transport: failTransport,
apiBase: 'http://x/v1',
model: 'm',
retryBaseDelayMs: 1,
});
await expect(failLlm.chat([{ role: 'user', content: 'hi' }])).rejects.toThrow(/HTTP 502/);
expect(failSent).toHaveLength(3);
expect(errorSpy).toHaveBeenCalledWith(
'[llm] chat failed',
expect.objectContaining({
attempts: 3,
lastStatus: 502,
message: expect.stringContaining('HTTP 502'),
totalMs: expect.any(Number),
}),
);
});
});
describe('createLlmClient.chatWithTools (function-calling loop, v0.21 #16 P2)', () => {
const tool = {
type: 'function' as const,
function: {
name: 'getNeighbours',
description: 'list bordering region keys',
parameters: { type: 'object' },
},
};
function toolCallResponse(id: string, name: string, args: string) {
return json({
choices: [
{
finish_reason: 'tool_calls',
message: {
content: null,
tool_calls: [{ id, type: 'function', function: { name, arguments: args } }],
},
},
],
});
}
function contentResponse(content: string) {
return json({ choices: [{ finish_reason: 'stop', message: { content } }] });
}
it('sends tools in the first request; echoes the assistant tool_calls + tool result; the executor gets parsed args', async () => {
const sent: string[] = [];
const transport = async (_url: string, init?: RequestInit) => {
sent.push(String(init?.body ?? ''));
if (sent.length === 1) return toolCallResponse('call_1', 'getNeighbours', '{"regionKeys":["a"]}');
return contentResponse('final answer');
};
const executorCalls: Array<{ name: string; args: Record<string, unknown> }> = [];
const llm = createLlmClient({ transport, apiBase: 'http://x/v1', model: 'm' });
const out = await llm.chatWithTools!(
[{ role: 'user', content: 'hi' }],
[tool],
(name, args) => {
executorCalls.push({ name, args });
return JSON.stringify({ neighbours: ['b'] });
},
);
expect(out).toBe('final answer');
expect(sent).toHaveLength(2);
// request 1: the tools array is present, history is just the initial message
const body1 = JSON.parse(sent[0]);
expect(body1.tools).toEqual([tool]);
expect(body1.messages).toEqual([{ role: 'user', content: 'hi' }]);
// request 2: the assistant tool-call and the tool result are echoed back
const body2 = JSON.parse(sent[1]);
expect(body2.tools).toEqual([tool]);
expect(body2.messages).toEqual([
{ role: 'user', content: 'hi' },
{
role: 'assistant',
content: null,
tool_calls: [
{
id: 'call_1',
type: 'function',
function: { name: 'getNeighbours', arguments: '{"regionKeys":["a"]}' },
},
],
},
{ role: 'tool', tool_call_id: 'call_1', content: JSON.stringify({ neighbours: ['b'] }) },
]);
// the executor received the parsed (object) arguments, not the raw string
expect(executorCalls).toEqual([{ name: 'getNeighbours', args: { regionKeys: ['a'] } }]);
});
it('a content-only response ends in one round (the executor is never called)', async () => {
const sent: string[] = [];
const transport = async (_url: string, init?: RequestInit) => {
sent.push(String(init?.body ?? ''));
return contentResponse('done');
};
const llm = createLlmClient({ transport, apiBase: 'http://x/v1', model: 'm' });
const out = await llm.chatWithTools!(
[{ role: 'user', content: 'hi' }],
[tool],
() => {
throw new Error('the executor must not be called');
},
);
expect(out).toBe('done');
expect(sent).toHaveLength(1);
});
it('bounds the tool rounds: maxRounds tool-call rounds, then one final no-tools request', async () => {
const sent: string[] = [];
let n = 0;
const transport = async (_url: string, init?: RequestInit) => {
sent.push(String(init?.body ?? ''));
n += 1;
if (n <= 2) return toolCallResponse(`call_${n}`, 'getNeighbours', '{}');
return contentResponse('committed');
};
const llm = createLlmClient({ transport, apiBase: 'http://x/v1', model: 'm' });
const out = await llm.chatWithTools!(
[{ role: 'user', content: 'hi' }],
[tool],
() => JSON.stringify({ neighbours: [] }),
{ maxRounds: 2 },
);
expect(out).toBe('committed');
expect(sent).toHaveLength(3); // 2 tool rounds + the forced final request
expect(JSON.parse(sent[2]).tools).toBeUndefined(); // the final request has no tools
});
it('malformed tool arguments produce an "invalid tool arguments" tool message (no throw)', async () => {
const sent: string[] = [];
let n = 0;
const transport = async (_url: string, init?: RequestInit) => {
sent.push(String(init?.body ?? ''));
n += 1;
if (n === 1) return toolCallResponse('call_1', 'getNeighbours', '{not valid json');
return contentResponse('recovered');
};
const llm = createLlmClient({ transport, apiBase: 'http://x/v1', model: 'm' });
const out = await llm.chatWithTools!(
[{ role: 'user', content: 'hi' }],
[tool],
() => {
throw new Error('the executor must not be called on malformed args');
},
);
expect(out).toBe('recovered');
const body2 = JSON.parse(sent[1]);
const toolMsg = body2.messages.find((m: { role?: string }) => m.role === 'tool');
expect(toolMsg).toBeDefined();
expect(toolMsg.content).toMatch(/invalid tool arguments/);
});
it('retries a tool-call round on transient failure and still resolves the tool (500 → tool_calls → content)', async () => {
const sent: string[] = [];
let n = 0;
const transport = async (_url: string, init?: RequestInit) => {
sent.push(String(init?.body ?? ''));
n += 1;
if (n === 1) return httpError(500);
if (n === 2) return toolCallResponse('call_1', 'getNeighbours', '{"regionKeys":["a"]}');
return contentResponse('ok');
};
const llm = createLlmClient({
transport,
apiBase: 'http://x/v1',
model: 'm',
retryBaseDelayMs: 1,
});
const out = await llm.chatWithTools!(
[{ role: 'user', content: 'hi' }],
[tool],
() => JSON.stringify({ neighbours: [] }),
);
expect(out).toBe('ok');
expect(sent).toHaveLength(3);
});
it('a tool-call response is never treated as a truncation failure (content null is fine)', async () => {
const sent: string[] = [];
const transport = async (_url: string, init?: RequestInit) => {
sent.push(String(init?.body ?? ''));
if (sent.length === 1) return toolCallResponse('call_1', 'getNeighbours', '{}');
return contentResponse('ok');
};
const llm = createLlmClient({ transport, apiBase: 'http://x/v1', model: 'm' });
const out = await llm.chatWithTools!(
[{ role: 'user', content: 'hi' }],
[tool],
() => JSON.stringify({ neighbours: [] }),
);
expect(out).toBe('ok');
expect(sent).toHaveLength(2); // no retry of the first (successful) round
});
});
+398 -33
View File
@@ -4,21 +4,74 @@
// LLM_API_BASE (default https://ai.kkhost.pl/v1 — a vLLM endpoint, no API key)
// LLM_MODEL (default qwen3.8-27b — a vLLM *reasoning* model)
// LLM_TIMEOUT_MS (default 180000 — the 27B reasoning model can be slow)
// LLM_MAX_TOKENS (default 4000 — max *output* tokens per request)
// LLM_REASONING_EFFORT (default "low" — sent as top-level `reasoning_effort`;
// empty or "off" omits the field entirely)
//
// The live model is a REASONING model: it emits its chain-of-thought in the
// response's `reasoning` field and the final answer in `content`. It therefore
// needs a generous `max_tokens` budget to finish thinking before writing
// `content` — a too-small budget makes it run out mid-reasoning and return a
// null `content`. We always send an explicit, generous `max_tokens` (the
// OpenAI/vLLM wire key — NOT camelCase `maxTokens`, which the server ignores)
// and read only `choices[0].message.content`, ignoring `reasoning`. No auth
// header is added (the endpoint requires no key).
// response's `reasoning` field and the final answer in `content`. Sending
// top-level `reasoning_effort: "low"` cuts the CoT by ~85% (~4000 →
// ~400–600 tokens), so it fits comfortably inside the `max_tokens` budget and
// `content` comes back populated. (Other knobs misbehave on this build:
// "minimal" produced MORE CoT than "low", `chat_template_kwargs:
// {enable_thinking:false}` intermittently emits invalid JSON, and `/no_think`
// is silently ignored.) We read only `choices[0].message.content`, ignoring
// `reasoning`. No auth header is added (the endpoint requires no key).
//
// Reliability: `chat()` retries transient failures — timeout/abort, HTTP 5xx,
// network errors, and null/empty `content` (truncation safety net) — with up
// to 3 total attempts and 2s→3s backoff (±20% jitter). HTTP 4xx is a
// deterministic client error and throws immediately, with no retry. Every
// call is logged: one line on success, one on final failure.
//
// Function calling: `chatWithTools()` extends `chat()` with the OpenAI tool
// loop. When the model answers with `finish_reason: "tool_calls"`, the client
// runs the provided executor for every requested call, appends the assistant
// tool-call message plus one `tool` result message per call, and re-sends the
// growing history until the model produces a final `content`. The loop is
// bounded to DEFAULT_MAX_TOOL_ROUNDS (6) tool rounds; if the budget is spent
// without a final answer, one last *no-tools* request forces the model to
// commit. The same retry/backoff/reasoning-effort machinery applies per
// request, so an injectable transport only has to forward `tools` in the body
// and accept `assistant`/`tool` messages in the history. The deterministic
// stub answers plain `content` (no tool calls) and therefore bypasses the
// loop in a single round.
export interface ChatMessage {
role: 'system' | 'user' | 'assistant';
content: string;
}
/** One OpenAI-style function call the model requests (`finish_reason: "tool_calls"`). */
export interface ToolCallSpec {
id: string;
type: 'function';
function: { name: string; arguments: string };
}
/** A function the model may call (one OpenAI `tools` entry). */
export interface ToolDefinition {
type: 'function';
function: {
name: string;
description?: string;
parameters?: Record<string, unknown>;
};
}
/**
* The full message vocabulary a request can carry: plain chat messages, plus
* assistant messages that request tool calls and the `tool` results that
* answer them (the OpenAI function-calling wire shape).
*/
export type WireMessage =
| ChatMessage
| { role: 'assistant'; content: string | null; tool_calls: ToolCallSpec[] }
| { role: 'tool'; tool_call_id: string; content: string };
/** Executes one tool call; the returned string is fed back to the model as the `tool` result. */
export type ToolExecutor = (name: string, args: Record<string, unknown>) => string;
/** A network call. The default implementation is native fetch. */
export type Transport = (url: string, init?: RequestInit) => Promise<Response>;
@@ -29,6 +82,18 @@ export interface ChatOptions {
export interface LlmClient {
chat(messages: ChatMessage[], opts?: ChatOptions): Promise<string>;
/**
* The function-calling variant of chat() — see the file header for the loop
* semantics (bounded tool rounds, then a forced final answer). Optional on
* the interface: minimal test doubles may omit it, and callers (the
* engine's runTurn) fall back to chat() when it is absent.
*/
chatWithTools?(
messages: WireMessage[],
tools: ToolDefinition[],
executeTool: ToolExecutor,
opts?: ChatOptions & { maxRounds?: number },
): Promise<string>;
listModels(): Promise<string[]>;
}
@@ -36,14 +101,37 @@ export const DEFAULT_BASE = 'https://ai.kkhost.pl/v1';
export const DEFAULT_MODEL = 'qwen3.8-27b';
/**
* Generous token budget for every chat request. The live qwen3.8-27b is a
* Default max *output* tokens per chat request. The live qwen3.8-27b is a
* reasoning model: it spends `reasoning_tokens` on its chain-of-thought before
* writing the final answer into `content`. A small budget makes it run out
* mid-reasoning and return a null `content`, so we give it room to finish both.
* `max_tokens` is always set in the request body, even when a caller omits it.
* writing the final answer into `content`. With `reasoning_effort: "low"` a
* realistic turn uses ~800–1100 output tokens, so 4000 is ~4× headroom while
* staying under the upstream ~90s proxy wall. `max_tokens` is always set in the
* request body (the vLLM/OpenAI wire key — NOT camelCase `maxTokens`, which the
* server ignores), even when a caller omits it.
*/
export const DEFAULT_MAX_TOKENS = 4000;
/**
* Default for `LLM_REASONING_EFFORT`. Sending top-level `reasoning_effort:
* "low"` to the vLLM model cuts its chain-of-thought by ~85%, which is what
* keeps `content` from being truncated to null.
*/
export const DEFAULT_REASONING_EFFORT = 'low';
/** Total attempts per request (chat / chatWithTools) before giving up (1 initial + 2 retries). */
export const MAX_ATTEMPTS = 3;
/**
* Max tool-call rounds (assistant tool_calls → tool results) a chatWithTools
* loop may make before a final no-tools request forces the answer. Keeps a
* turn bounded even if the model keeps asking for data; a realistic turn uses
* 0–2 rounds.
*/
export const DEFAULT_MAX_TOOL_ROUNDS = 6;
/** Base retry backoff: retry 1 waits 2000ms, retry 2 waits 3000ms, each ±20% jitter. */
const RETRY_BASE_DELAY_MS = 2000;
const fetchTransport: Transport = (url, init) => fetch(url, init);
export interface LlmClientDeps {
@@ -51,6 +139,116 @@ export interface LlmClientDeps {
apiBase?: string;
model?: string;
timeoutMs?: number;
maxTokens?: number;
reasoningEffort?: string;
/**
* Base delay (ms) for the retry backoff, overriding RETRY_BASE_DELAY_MS.
* Mostly useful in tests to keep the suite fast.
*/
retryBaseDelayMs?: number;
}
/** parseInt with a fallback for unset/empty/malformed values. */
function envInt(name: string, fallback: number): number {
const raw = process.env[name]?.trim();
if (!raw) return fallback;
const n = parseInt(raw, 10);
return Number.isFinite(n) && n > 0 ? n : fallback;
}
/** Trimmed env value, or undefined when unset/empty. */
function envStr(name: string): string | undefined {
const raw = process.env[name]?.trim();
return raw ? raw : undefined;
}
function sleep(ms: number): Promise<void> {
return new Promise((resolve) => setTimeout(resolve, ms));
}
/** Backoff before retry `n` (1-based): `2000 * 1.5^(n-1)`, ±20% jitter. */
function backoffDelay(retry: number, baseMs: number): number {
const base = baseMs * 1.5 ** (retry - 1);
return base * (0.8 + Math.random() * 0.4);
}
/** Network-level error codes that mark a transient failure. */
const RETRYABLE_NET_CODES = new Set([
'ECONNRESET',
'ECONNREFUSED',
'ECONNABORTED',
'EPIPE',
'EHOSTUNREACH',
'ENETUNREACH',
'ETIMEDOUT',
'EAI_AGAIN',
'UND_ERR_CONNECT_TIMEOUT',
'UND_ERR_SOCKET',
'UND_ERR_REQ_SOCKET',
'UND_ERR_REQ_RETRY',
]);
/** True for a timeout/abort (an AbortSignal that fired, a TimeoutError, or AbortError). */
function isTimeoutOrAbort(err: unknown): boolean {
let e: unknown = err;
for (let i = 0; i < 3 && e; i++) {
if (e instanceof Error && (e.name === 'TimeoutError' || e.name === 'AbortError')) return true;
e = (e as { cause?: unknown })?.cause;
}
return false;
}
/** True for a transient network failure (ECONNRESET / ECONNREFUSED / socket closed / …). */
function isNetworkError(err: unknown): boolean {
let e: unknown = err;
let msg = '';
for (let i = 0; i < 3 && e; i++) {
if (e instanceof Error) {
msg += ` ${e.message}`;
const code = (e as Error & { code?: string }).code;
if (code && RETRYABLE_NET_CODES.has(code)) return true;
} else {
msg += ` ${String(e)}`;
}
e = (e as { cause?: unknown })?.cause;
}
return /socket closed|socket hang up|connection reset|connection refused|other side closed|fetch failed/i.test(
msg,
);
}
/** Parse the wire `tool_calls` array into validated ToolCallSpecs (malformed entries are dropped). */
function parseToolCalls(raw: unknown): ToolCallSpec[] {
if (!Array.isArray(raw)) return [];
const out: ToolCallSpec[] = [];
for (const tc of raw) {
if (!tc || typeof tc !== 'object') continue;
const t = tc as Record<string, unknown>;
const fn = t.function as Record<string, unknown> | undefined;
if (!fn || typeof fn.name !== 'string' || fn.name === '') continue;
const argumentsText =
typeof fn.arguments === 'string'
? fn.arguments
: fn.arguments != null
? JSON.stringify(fn.arguments)
: '{}';
out.push({
id: typeof t.id === 'string' && t.id !== '' ? t.id : `call_${out.length}`,
type: 'function',
function: { name: fn.name, arguments: argumentsText },
});
}
return out;
}
/** One transport attempt, classified as success / retryable / fatal. */
interface Attempt {
status?: number;
error?: Error;
retryable: boolean;
content?: string;
finishReason?: string | null;
toolCalls?: ToolCallSpec[];
}
export function createLlmClient(deps: LlmClientDeps = {}): LlmClient {
@@ -61,36 +259,203 @@ export function createLlmClient(deps: LlmClientDeps = {}): LlmClient {
deps.timeoutMs ? String(deps.timeoutMs) : (process.env.LLM_TIMEOUT_MS ?? '180000'),
10,
);
const maxTokens = deps.maxTokens ?? envInt('LLM_MAX_TOKENS', DEFAULT_MAX_TOKENS);
const effort = deps.reasoningEffort ?? envStr('LLM_REASONING_EFFORT') ?? DEFAULT_REASONING_EFFORT;
// "off" (case-insensitive) or empty disables the thinking knob entirely.
const sendEffort = effort !== '' && effort.toLowerCase() !== 'off';
const retryBaseMs = deps.retryBaseDelayMs ?? RETRY_BASE_DELAY_MS;
async function chat(messages: ChatMessage[], opts: ChatOptions = {}): Promise<string> {
const payload: Record<string, unknown> = { model, messages };
if (opts.temperature != null) payload.temperature = opts.temperature;
// Always send an explicit, generous `max_tokens` (the vLLM/OpenAI wire key —
// camelCase `maxTokens` is ignored by the server) so the reasoning model has
// room to finish `reasoning` before emitting `content`.
payload.max_tokens = opts.maxTokens ?? DEFAULT_MAX_TOKENS;
const res = await transport(`${apiBase}/chat/completions`, {
/**
* One POST to /chat/completions. Classifies the outcome:
* - success → content and/or tool_calls
* - retryable → timeout/abort, HTTP 5xx, network error, null/empty content
* - fatal → HTTP 4xx (deterministic client error) or an unexpected throw
*/
async function attemptOnce(payload: string, signal: AbortSignal): Promise<Attempt> {
let res: Response;
try {
res = await transport(`${apiBase}/chat/completions`, {
method: 'POST',
// No auth header: the ai.kkhost.pl vLLM endpoint requires no API key.
headers: { 'content-type': 'application/json' },
body: JSON.stringify(payload),
signal: AbortSignal.timeout(timeoutMs),
body: payload,
signal,
});
} catch (err) {
const e = err instanceof Error ? err : new Error(String(err));
// The transport threw: our AbortSignal fired (timeout/abort) or a
// network-level failure (ECONNRESET / ECONNREFUSED / socket closed).
return { error: e, retryable: signal.aborted || isTimeoutOrAbort(e) || isNetworkError(e) };
}
if (!res.ok) {
const text = await res.text().catch(() => '');
throw new Error(`chat failed: HTTP ${res.status} ${text.slice(0, 200)}`);
}
// Reasoning models also return their chain-of-thought in a separate
// `reasoning` field. We deliberately ignore it and use only the final
// answer, which lives in `content`.
const body = (await res.json()) as {
choices?: { message?: { content?: string; reasoning?: string | null } }[];
return {
status: res.status,
error: new Error(`chat failed: HTTP ${res.status} ${text.slice(0, 200)}`),
// 4xx is a deterministic client error → do not retry; 5xx is retryable.
retryable: res.status >= 500 && res.status < 600,
};
const content = body.choices?.[0]?.message?.content;
if (typeof content !== 'string') {
throw new Error('chat failed: no choices[0].message.content in response');
}
return content;
const body = (await res.json()) as {
choices?: {
finish_reason?: string | null;
message?: { content?: string; reasoning?: string | null; tool_calls?: unknown };
}[];
};
const choice = body.choices?.[0];
const message = choice?.message;
// A tool-call round is a SUCCESS even though `content` is null there: the
// model is asking for data, not failing (never treat it as truncation).
const toolCalls = parseToolCalls(message?.tool_calls);
if (toolCalls.length > 0) {
return {
status: res.status,
retryable: false,
content:
typeof message?.content === 'string' && message.content !== '' ? message.content : undefined,
finishReason: choice?.finish_reason ?? null,
toolCalls,
};
}
// The reasoning model can exhaust its output budget on the CoT and return
// a null `content` — treat that as a retryable truncation, not a success.
const content = message?.content;
if (typeof content !== 'string' || content === '') {
return {
status: res.status,
error: new Error('chat failed: no choices[0].message.content in response'),
retryable: true,
};
}
return {
status: res.status,
retryable: false,
content,
finishReason: choice?.finish_reason ?? null,
};
}
/** Build one /chat/completions request body. `tools` is only included when non-empty, so plain chat() keeps its exact legacy shape. */
function buildPayload(
messages: WireMessage[],
tools: ToolDefinition[] | undefined,
opts: ChatOptions,
): Record<string, unknown> {
const payload: Record<string, unknown> = {
model,
messages,
// The wire key is `max_tokens` (snake_case) — camelCase is ignored by the
// server. With `reasoning_effort: "low"` the CoT fits inside this budget,
// so `content` comes back populated.
max_tokens: opts.maxTokens ?? maxTokens,
};
if (opts.temperature != null) payload.temperature = opts.temperature;
if (sendEffort) payload.reasoning_effort = effort;
if (tools && tools.length > 0) payload.tools = tools;
return payload;
}
/**
* One request with the standard retry/backoff: up to MAX_ATTEMPTS per
* request; resolves with a successful Attempt (content and/or toolCalls) or
* throws the last error once the attempts are spent.
*/
async function requestWithRetry(payload: Record<string, unknown>): Promise<Attempt> {
const totalStart = Date.now();
let lastStatus: number | undefined;
let lastError: Error = new Error('chat failed: no attempt completed');
for (let attempt = 1; attempt <= MAX_ATTEMPTS; attempt++) {
const out = await attemptOnce(JSON.stringify(payload), AbortSignal.timeout(timeoutMs));
if (out.status !== undefined) lastStatus = out.status;
if (out.error) lastError = out.error;
if (out.content !== undefined || out.toolCalls !== undefined) {
console.log('[llm] chat ok', {
ms: Date.now() - totalStart,
finishReason: out.finishReason ?? null,
toolCalls: out.toolCalls?.length ?? 0,
});
return out;
}
// Give up on a non-retryable failure, or when the last attempt is spent.
if (!out.retryable || attempt === MAX_ATTEMPTS) {
console.error('[llm] chat failed', {
attempts: attempt,
lastStatus,
message: lastError.message,
totalMs: Date.now() - totalStart,
});
throw lastError;
}
await sleep(backoffDelay(attempt, retryBaseMs));
}
// Unreachable: every loop path returns or throws.
throw lastError;
}
async function chat(messages: ChatMessage[], opts: ChatOptions = {}): Promise<string> {
const out = await requestWithRetry(buildPayload(messages, undefined, opts));
return out.content ?? '';
}
/**
* The function-calling loop — see the file header. Bounded: at most
* `maxRounds` tool rounds, then one final no-tools request forces an answer.
* Throws like chat() only on transport-level exhaustion (the engine maps that
* to a 502; bad *content* never throws, it is parsed defensively downstream).
*/
async function chatWithTools(
initial: WireMessage[],
tools: ToolDefinition[],
executeTool: ToolExecutor,
opts: ChatOptions & { maxRounds?: number } = {},
): Promise<string> {
const maxRounds = Math.max(1, opts.maxRounds ?? DEFAULT_MAX_TOOL_ROUNDS);
const messages: WireMessage[] = [...initial];
for (let round = 0; round < maxRounds; round++) {
const out = await requestWithRetry(buildPayload(messages, tools, opts));
// Tool calls win over any partial content: the model asked for data
// before it finished.
if (out.toolCalls && out.toolCalls.length > 0) {
messages.push({
role: 'assistant',
content: out.content ?? null,
tool_calls: out.toolCalls,
});
for (const tc of out.toolCalls) {
let result: string;
try {
const parsed: unknown =
tc.function.arguments !== '' ? JSON.parse(tc.function.arguments) : {};
const args =
parsed !== null && typeof parsed === 'object' && !Array.isArray(parsed)
? (parsed as Record<string, unknown>)
: {};
result = executeTool(tc.function.name, args);
} catch (err) {
// Malformed arguments are not fatal: hand the model an error
// result so it can re-call with valid arguments or move on.
result = JSON.stringify({
error: `invalid tool arguments: ${err instanceof Error ? err.message : String(err)}`,
});
}
messages.push({ role: 'tool', tool_call_id: tc.id, content: result });
}
continue;
}
if (out.content !== undefined) return out.content;
}
// The tool budget is spent without a final answer: one last no-tools
// request forces the model to commit.
messages.push({
role: 'user',
content: 'You have reached your tool budget. Answer now with the final result only.',
});
const out = await requestWithRetry(buildPayload(messages, undefined, opts));
return out.content ?? '';
}
async function listModels(): Promise<string[]> {
@@ -102,5 +467,5 @@ export function createLlmClient(deps: LlmClientDeps = {}): LlmClient {
return (body.data ?? []).map((m) => m.id);
}
return { chat, listModels };
return { chat, chatWithTools, listModels };
}
+170 -8
View File
@@ -1,8 +1,24 @@
import { describe, expect, it } from 'vitest';
import { buildRegionMap } from './map';
import { nationColor } from '../shared/protocol';
import {
mapFeatureOwner,
nationColor,
NO_MANS_LAND_FILL,
NO_MANS_LAND_STROKE,
OWNED_STROKE,
regionFillStyle,
regionOwner,
UNOWNED_FILL,
UNOWNED_STROKE,
unownedTooltipLabel,
type RegionMap,
} from '../shared/protocol';
import type { GameState } from '../shared/types';
// Region-key fixtures (v0.19, #16 P1): ownership and the RegionMap are now keyed
// by region key (one per owned sub-region), not by a parent-country ISO_A3. The
// keys below are deliberately fake (obviously not real manifest entries) so this
// test stays self-contained and format-agnostic.
const state: GameState = {
id: 'g',
presetId: 'p',
@@ -16,7 +32,7 @@ const state: GameState = {
name: 'UK',
type: 'major',
stats: { military: 80, economy: 70, stability: 60, population: 50 },
territory: ['GBR', 'IRL'],
territory: ['albania-aaaa', 'wales-bbbb'],
relations: {},
},
de: {
@@ -24,21 +40,122 @@ const state: GameState = {
name: 'DE',
type: 'major',
stats: { military: 90, economy: 70, stability: 70, population: 90 },
territory: ['DEU'],
territory: ['brandenburg-cccc'],
relations: {},
},
},
events: [],
pending: [],
version: 1,
unowned: [],
pendingNationOps: [],
};
// The RegionMap built from the fixture: the authoritative region key → owner source.
const regions: RegionMap = buildRegionMap(state);
describe('buildRegionMap', () => {
it('maps each ISO_A3 region to its owner + that nation\'s stable color', () => {
it('maps each owned region key to its owner + that nation\'s stable color', () => {
const m = buildRegionMap(state);
expect(m.GBR).toEqual({ color: nationColor('uk'), owner: 'UK', ownerId: 'uk' });
expect(m.IRL).toEqual({ color: nationColor('uk'), owner: 'UK', ownerId: 'uk' });
expect(m.DEU).toEqual({ color: nationColor('de'), owner: 'DE', ownerId: 'de' });
expect(m['albania-aaaa']).toEqual({ color: nationColor('uk'), owner: 'UK', ownerId: 'uk' });
expect(m['wales-bbbb']).toEqual({ color: nationColor('uk'), owner: 'UK', ownerId: 'uk' });
expect(m['brandenburg-cccc']).toEqual({ color: nationColor('de'), owner: 'DE', ownerId: 'de' });
// a region nobody owns is simply absent
expect(m.FRA).toBeUndefined();
expect(m['normandie-dddd']).toBeUndefined();
});
it('(v0.22 #16 P3) a released (no-man\'s-land) key — in GameState.unowned, owned by no nation — is absent: absence IS unowned', () => {
const s: GameState = JSON.parse(JSON.stringify(state));
// simulate a mid-game release: the key left every territory and entered unowned
s.nations.uk.territory = s.nations.uk.territory.filter((k) => k !== 'albania-aaaa');
s.unowned = ['albania-aaaa'];
const m = buildRegionMap(s);
expect(m['albania-aaaa']).toBeUndefined(); // the map cannot tell which kind of unowned
expect(s.unowned).toEqual(['albania-aaaa']); // ...the client's GameState.unowned decides that
});
});
describe('regionOwner', () => {
it('resolves an owned region key to its owner record', () => {
expect(regionOwner(regions, 'albania-aaaa')).toEqual({
color: nationColor('uk'),
owner: 'UK',
ownerId: 'uk',
});
expect(regionOwner(regions, 'brandenburg-cccc')).toEqual({
color: nationColor('de'),
owner: 'DE',
ownerId: 'de',
});
});
it('returns undefined for an unowned region (no RegionMap entry)', () => {
expect(regionOwner(regions, 'normandie-dddd')).toBeUndefined();
expect(regionOwner(regions, 'yorkshire-eeee')).toBeUndefined();
});
it('returns undefined for an empty or missing key', () => {
expect(regionOwner(regions, '')).toBeUndefined();
expect(regionOwner(regions, null)).toBeUndefined();
expect(regionOwner(regions, undefined)).toBeUndefined();
});
});
/**
* #6 regression guard (sub-national map, region-keyed). The click/hover handlers
* resolve the owning nation from a rendered map feature. MapLibre repacks a
* GeoJSON source's top-level `id` into a *numeric index* when it stores the
* source, so a feature the map hands back at interaction time has a number for
* `id`. The choropleth is sub-national: a feature's own sub-region id is a code
* (`DEU-03`), and its owner now lives at its **region key** (`brandenburg-cccc`),
* which the client stamps into `properties.regionKey` from `region-keys.json`
* (the RegionMap is keyed by that key, never the sub-region id nor the repacked
* id). This pins the exact data shape and proves the resolution:
* `mapFeatureOwner` works via `properties.regionKey`, while the two wrong paths
* (the repacked numeric `feature.id`, and the sub-region `regionId`, which is
* not a RegionMap key) do not.
*/
describe('#6 — sub-region owner must be resolved from properties.regionKey, not the sub-region id / repacked feature.id', () => {
// The shape MapLibre returns for a sub-region feature after setData(): `id`
// is a number (repacked), and the stable identifiers live only in properties —
// `regionId` (the sub-region code) and `regionKey` (the region key).
const repackedFeature = {
id: 0,
properties: { name: 'Brandenburg R03', regionId: 'DEU-03', regionKey: 'brandenburg-cccc' },
};
it('resolves the owner from properties.regionKey (the fix)', () => {
expect(mapFeatureOwner(regions, repackedFeature)).toEqual({
color: nationColor('de'),
owner: 'DE',
ownerId: 'de',
});
});
it('the sub-region regionId is NOT a RegionMap key — resolving from it fails', () => {
// 'DEU-03' is a sub-region id; the RegionMap is keyed by region key.
expect(regionOwner(regions, repackedFeature.properties.regionId)).toBeUndefined();
});
it('the repacked numeric feature.id does NOT resolve — the bug', () => {
// String(0) === '0' is not a valid key, so the pre-fix lookup failed and
// reported "No owner" even for owned regions.
expect(regionOwner(regions, String(repackedFeature.id))).toBeUndefined();
});
});
describe('mapFeatureOwner', () => {
it('returns undefined for a missing feature, missing regionKey, or non-string regionKey', () => {
expect(mapFeatureOwner(regions, null)).toBeUndefined();
expect(mapFeatureOwner(regions, undefined)).toBeUndefined();
expect(mapFeatureOwner(regions, {})).toBeUndefined();
expect(mapFeatureOwner(regions, { properties: {} })).toBeUndefined();
expect(mapFeatureOwner(regions, { properties: { regionKey: 42 } })).toBeUndefined();
});
it('returns undefined for a region key nobody owns', () => {
expect(mapFeatureOwner(regions, { properties: { regionKey: 'normandie-dddd' } })).toBeUndefined();
expect(mapFeatureOwner(regions, { properties: { regionKey: 'yorkshire-eeee' } })).toBeUndefined();
});
});
@@ -50,3 +167,48 @@ describe('nationColor', () => {
expect(nationColor('uk')).toMatch(/^hsl\(\d+ 58% 46%\)$/);
});
});
// (v0.22, #16 P3) The no-man's-land presentation contract lives in
// shared/protocol (shared/*.test.ts is not in the vitest glob, so these
// tests live here): the distinct visible grey, the faint preset-unassigned
// look, the per-kind borders, and the tooltip sub-line.
describe('no man\'s land presentation contract (v0.22 #16 P3)', () => {
it('regionFillStyle: an owned region uses its nation color + the owned border', () => {
expect(regionFillStyle(regions['albania-aaaa'], false)).toEqual({
fill: nationColor('uk'),
stroke: OWNED_STROKE,
});
expect(regionFillStyle(regions['brandenburg-cccc'], true)).toEqual({
fill: nationColor('de'),
stroke: OWNED_STROKE,
}); // the no-man's-land flag never affects an owned region
});
it('regionFillStyle: an unowned region that IS no man\'s land gets the distinct visible grey', () => {
expect(regionFillStyle(undefined, true)).toEqual({
fill: NO_MANS_LAND_FILL,
stroke: NO_MANS_LAND_STROKE,
});
});
it('regionFillStyle: an unowned region that was never released keeps the faint look', () => {
expect(regionFillStyle(undefined, false)).toEqual({
fill: UNOWNED_FILL,
stroke: UNOWNED_STROKE,
});
});
it('the no-man\'s-land grey can never collide with a nation color (hue-less vs HSL)', () => {
expect(NO_MANS_LAND_FILL).not.toMatch(/^hsl\(/);
expect(NO_MANS_LAND_FILL).not.toBe(nationColor('uk'));
expect(NO_MANS_LAND_FILL).not.toBe(nationColor('de'));
// and it must be visibly different from the faint preset-unassigned fill
expect(NO_MANS_LAND_FILL).not.toBe(UNOWNED_FILL);
expect(NO_MANS_LAND_STROKE).not.toBe(UNOWNED_STROKE);
});
it('unownedTooltipLabel: the tooltip sub-line names the two kinds of unowned', () => {
expect(unownedTooltipLabel(true)).toBe("No man's land");
expect(unownedTooltipLabel(false)).toBe('No owner');
});
});
+14 -5
View File
@@ -1,6 +1,15 @@
// Build the choropleth payload from a GameState: every ISO_A3 region maps to its
// owning nation plus that nation's stable color (see shared.nationColor). The
// client merges this onto public/countries.geo.json and calls source.setData().
// Build the choropleth payload from a GameState: every region key (see
// public/region-keys.json) maps to its owning nation plus that nation's stable
// color (see shared.nationColor). The client merges this onto the sub-national
// regions.geo.json (resolving each feature by its own region key) and calls
// source.setData(). Format-agnostic: it maps whatever keys sit in territory.
//
// A key ABSENT from the returned map is unowned (no nation's territory holds
// it) — this covers both regions a preset never assigned and regions released
// to no man's land mid-game (v0.22, #16 P3). The map deliberately does NOT
// distinguish the two: the visible no-man's-land grey vs the faint
// preset-unassigned look is decided by the client from `GameState.unowned`
// (see shared/protocol.ts's regionFillStyle).
import { nationColor, type RegionMap } from '../shared/protocol';
import type { GameState } from '../shared/types';
@@ -8,8 +17,8 @@ export function buildRegionMap(state: GameState): RegionMap {
const map: RegionMap = {};
for (const [id, nation] of Object.entries(state.nations)) {
const color = nationColor(id);
for (const code of nation.territory) {
map[code] = { color, owner: nation.name, ownerId: id };
for (const key of nation.territory) {
map[key] = { color, owner: nation.name, ownerId: id };
}
}
return map;
+209
View File
@@ -0,0 +1,209 @@
import { afterAll, afterEach, beforeEach, describe, expect, it } from 'vitest';
import { fileURLToPath } from 'node:url';
import { copyFileSync, mkdirSync, mkdtempSync, rmSync } from 'node:fs';
import { tmpdir } from 'node:os';
import path from 'node:path';
import {
allTerritoryKeys,
expandCountriesToKeys,
hasAdjacency,
hasRegionData,
loadRegions,
neighboursOf,
referenceForKeys,
regionName,
resetRegions,
validKeys,
} from './regions';
import type { GameState } from '../shared/types';
// The repo root: this file lives in server/, so '..' is the directory holding
// public/region-keys.json and public/regions.geo.json. cwd-independent (mirrors
// how server/index.ts locates its root via import.meta.url).
const root = fileURLToPath(new URL('..', import.meta.url));
describe('regions (region-key loader, v0.19 #16 P1)', () => {
beforeEach(() => {
expect(loadRegions(root)).toBe(true);
});
it('loads the full manifest: 1,800 unique valid region keys', () => {
expect(hasRegionData()).toBe(true);
expect(validKeys().size).toBe(1800);
});
it('expands an ISO_A3 country to the region keys of all its sub-regions', () => {
const fra = expandCountriesToKeys(['FRA']);
// FRA has 42 sub-regions in the committed dataset.
expect(fra).toHaveLength(42);
// every expanded key is a real region key
for (const k of fra) expect(validKeys().has(k)).toBe(true);
// and the reference table labels each one with its parent country
const ref = referenceForKeys(fra);
expect(Object.keys(ref)).toHaveLength(42);
for (const [k, label] of Object.entries(ref)) {
expect(label.endsWith('(FRA)')).toBe(true);
expect(regionName(k)).toBeTruthy();
}
// sample known FRA keys, and their exact reference strings
expect(fra).toContain('ain-lqtt');
expect(ref['ain-lqtt']).toBe('Ain (FRA)');
expect(ref['aisne-gstu']).toBe('Aisne (FRA)');
});
it('expands RUS to all 84 sub-regions after the #31 + #41 Arkhangel splits (no ownership gap at game init)', () => {
// #31 split RU-ARK into the mainland + New Earth + Severnaya Zemlya; #41
// repartitioned the mainland into the core (unchanged key) + Pechora +
// Yamal. A fresh game's RUS territory (expanded from the preset's
// country list) must contain all five sub-region keys — the main one
// (ownership-safe, unchanged key) plus the island and band ones.
const rus = expandCountriesToKeys(['RUS']);
expect(rus).toHaveLength(84);
expect(rus).toContain('arkhangel-sk-lhbk');
expect(rus).toContain('new-earth-eikt');
expect(rus).toContain('severnaya-zemlya-awqp');
expect(rus).toContain('pechora-qwhs');
expect(rus).toContain('yamal-gosw');
});
it('referenceForKeys labels only known keys and omits unknown ones', () => {
const ref = referenceForKeys(['ain-lqtt', 'not-a-real-key-xyz']);
expect(ref['ain-lqtt']).toBe('Ain (FRA)');
expect(ref['not-a-real-key-xyz']).toBeUndefined();
});
it('allTerritoryKeys unions every nation\'s territory keys (no overlap)', () => {
const state: GameState = {
id: 'g',
presetId: 'p',
presetTitle: 'P',
playerNationId: 'uk',
turn: 1,
date: '1939-09-01',
nations: {
uk: {
id: 'uk',
name: 'UK',
type: 'major',
stats: { military: 80, economy: 70, stability: 60, population: 50 },
territory: expandCountriesToKeys(['GBR']),
relations: {},
},
fr: {
id: 'fr',
name: 'FR',
type: 'major',
stats: { military: 80, economy: 70, stability: 60, population: 50 },
territory: expandCountriesToKeys(['FRA']),
relations: {},
},
},
events: [],
pending: [],
version: 1,
unowned: [],
pendingNationOps: [],
};
// 16 GBR sub-regions + 42 FRA sub-regions, no overlap between the two.
expect(allTerritoryKeys(state).size).toBe(58);
});
it('hasAdjacency() is true: the region-adjacency manifest loaded (v0.21 #16 P2)', () => {
expect(hasAdjacency()).toBe(true);
});
it('neighboursOf returns the union of bordering keys (deduped, sorted, queried excluded)', () => {
// known mutual pairs from the manifest (verified in the Stage 1 spot checks)
const moselle = neighboursOf(['moselle-rygy']);
expect(moselle).toContain('baden-wurttemberg-oyje'); // FRA/DEU border
expect(neighboursOf(['baden-wurttemberg-oyje'])).toContain('moselle-rygy'); // mutual
expect(neighboursOf(['acre-ekzw'])).toContain('loreto-ipkx'); // BRA/PER border
expect(neighboursOf(['loreto-ipkx'])).toContain('acre-ekzw'); // mutual
// union + dedupe + sorted + the queried keys themselves excluded
const union = neighboursOf(['moselle-rygy', 'baden-wurttemberg-oyje']);
expect(union).toEqual([...union].sort());
expect(new Set(union).size).toBe(union.length); // no duplicates
expect(union).not.toContain('moselle-rygy');
expect(union).not.toContain('baden-wurttemberg-oyje');
});
it('neighboursOf returns [] for unknown keys or an empty set', () => {
expect(neighboursOf(['not-a-real-key-xyz'])).toEqual([]);
expect(neighboursOf([])).toEqual([]);
});
describe('graceful degradation with no region data', () => {
beforeEach(() => resetRegions());
it('expands to the raw input, omits references, and reports no data', () => {
expect(hasRegionData()).toBe(false);
// no manifest -> the country list passes through unchanged (old model)
expect(expandCountriesToKeys(['FRA', 'GBR'])).toEqual(['FRA', 'GBR']);
expect(referenceForKeys(['FRA'])).toEqual({});
expect(validKeys().size).toBe(0);
expect(regionName('FRA')).toBeUndefined();
// and no adjacency: the LLM tool / frontier field switch off
expect(hasAdjacency()).toBe(false);
expect(neighboursOf(['moselle-rygy'])).toEqual([]);
});
});
afterAll(() => resetRegions());
});
describe('loadRegions resolves the manifest per environment (dev public/ vs prod dist/)', () => {
const realRoot = root;
// A root that mimics the prod Docker image: no public/, the region files live
// in dist/ (where Vite copies public/* at build). This is the exact layout that
// broke v0.19.0 in prod (the loader only looked in public/).
const base = mkdtempSync(path.join(tmpdir(), 'history-regions-'));
const prodRoot = path.join(base, 'prod');
beforeEach(() => {
mkdirSync(path.join(prodRoot, 'dist'), { recursive: true });
copyFileSync(
path.join(realRoot, 'public', 'region-keys.json'),
path.join(prodRoot, 'dist', 'region-keys.json'),
);
copyFileSync(
path.join(realRoot, 'public', 'regions.geo.json'),
path.join(prodRoot, 'dist', 'regions.geo.json'),
);
});
afterEach(() => resetRegions());
afterAll(() => {
rmSync(base, { recursive: true, force: true });
});
it('loads from dist/ when public/ is absent (the prod container layout)', () => {
expect(loadRegions(prodRoot)).toBe(true);
expect(hasRegionData()).toBe(true);
expect(validKeys().size).toBe(1800);
expect(expandCountriesToKeys(['FRA'])).toHaveLength(42);
});
it('still loads from public/ (the dev layout, the first candidate)', () => {
expect(loadRegions(realRoot)).toBe(true);
expect(validKeys().size).toBe(1800);
});
it('a dist/ WITHOUT the adjacency manifest degrades: hasAdjacency() false, neighboursOf []', () => {
// this fixture copies only region-keys.json + regions.geo.json (no
// region-adjacency.json) — the server must boot and serve turns with the
// tool/frontier simply switched off.
expect(loadRegions(prodRoot)).toBe(true);
expect(hasAdjacency()).toBe(false);
expect(neighboursOf(['moselle-rygy'])).toEqual([]);
});
it('returns false and no data when neither public/ nor dist/ holds the files', () => {
const emptyRoot = path.join(base, 'empty');
mkdirSync(emptyRoot, { recursive: true });
expect(loadRegions(emptyRoot)).toBe(false);
expect(hasRegionData()).toBe(false);
expect(validKeys().size).toBe(0);
});
});
+207
View File
@@ -0,0 +1,207 @@
// Region-key data access (server). Loads the deterministic region-key manifest
// (region-keys.json: stable feature id -> region key), the sub-national geo
// (regions.geo.json: feature id -> { name, parent }), and — optionally — the
// precomputed region-adjacency manifest (region-adjacency.json: region key ->
// bordering region keys, built by scripts/build-region-adjacency.mjs) — all
// from public/ in dev (Vite serves it) or dist/ in prod (Vite copies
// public/* -> dist/ at build, and the Docker image keeps only dist/) — and
// joins them into the lookups the region-level ownership model needs:
//
// - expand a nation's ISO_A3 country list -> the region keys of all its sub-regions (v0.19, #16 P1)
// - build the LLM "regions" reference table (key -> "name (parent ISO_A3)")
// - the set of all valid region keys (to ignore hallucinated keys in applyTurnResult)
// - neighboursOf(): the union of the bordering keys for a set of keys — the
// data behind the LLM's getNeighbours tool and the player-frontier prompt
// field (v0.21, #16 P2)
//
// Deliberately turf-free: it reads the JSON files with plain JSON.parse and
// never imports @turf/@types/geojson (importing one pulls @types/geojson into
// the tsc program and breaks WorldMap.tsx; see the v0.17 changelog note).
// Loaded once at boot; the accessors below are pure data reads thereafter.
import { existsSync, readFileSync } from 'node:fs';
import path from 'node:path';
import type { GameState } from '../shared/types';
/** { name, parent } for one sub-region, where parent is the ISO_A3 country. */
interface RegionInfo {
name: string;
parent: string;
}
interface RegionData {
/** stable feature id -> region key (from public/region-keys.json). */
idToKey: Record<string, string>;
/** region key -> { name, parent }. */
keyToInfo: Record<string, RegionInfo>;
/** ISO_A3 parent -> region keys of its sub-regions (file order, stable). */
keysByCountry: Record<string, string[]>;
/** the set of all region keys. */
validKeys: Set<string>;
/** region key -> bordering region keys (from public/region-adjacency.json). */
adjacency: Record<string, string[]>;
}
let data: RegionData | null = null;
/**
* Load (or reload) the region-key manifest, geo, and adjacency. Idempotent.
* The files are served to the client from `public/` in dev (Vite serves it
* directly) and from `dist/` in prod (Vite copies `public/*` → `dist/` at build
* and the Docker image keeps only `dist/`), so probe `public/` then `dist/`
* (plus the root as a last resort) and use the first directory that holds the
* key manifest + geo. The adjacency manifest is OPTIONAL: when it is missing
* or broken, `adjacency` stays empty and `neighboursOf`/`hasAdjacency` simply
* report "no adjacency" (the LLM tool and the frontier prompt field switch
* off; everything else keeps working). Returns true when the core pair loaded
* cleanly; a missing/broken pair clears the data and returns false so the
* server still boots and degrades gracefully (expansion becomes a no-op,
* ownership falls back to the raw input keys).
*/
export function loadRegions(root: string): boolean {
const keyFile = 'region-keys.json';
const geoFile = 'regions.geo.json';
const adjacencyFile = 'region-adjacency.json';
const base = [
path.join(root, 'public'), // dev: Vite serves public/ at /
path.join(root, 'dist'), // prod: Vite copies public/* -> dist/ (== clientDir)
root, // last resort
].find((d) => existsSync(path.join(d, keyFile)) && existsSync(path.join(d, geoFile)));
if (!base) {
data = null;
return false;
}
const keyPath = path.join(base, keyFile);
const geoPath = path.join(base, geoFile);
try {
const idToKey = JSON.parse(readFileSync(keyPath, 'utf8')) as Record<string, string>;
const geo = JSON.parse(readFileSync(geoPath, 'utf8')) as {
features?: Array<{ id?: string | number; properties?: { name?: string; parent?: string } }>;
};
const keyToInfo: Record<string, RegionInfo> = {};
const keysByCountry: Record<string, string[]> = {};
const validKeys = new Set<string>();
for (const f of geo.features ?? []) {
const id = f.id == null ? '' : String(f.id);
const key = idToKey[id];
if (!key) continue; // a geo feature with no manifest entry is skipped
const name = typeof f.properties?.name === 'string' ? f.properties.name : '';
const parent = typeof f.properties?.parent === 'string' ? f.properties.parent : '';
keyToInfo[key] = { name, parent };
validKeys.add(key);
if (parent) (keysByCountry[parent] ??= []).push(key);
}
// Adjacency is optional: a missing file means "no adjacency data".
let adjacency: Record<string, string[]> = {};
const adjacencyPath = path.join(base, adjacencyFile);
if (existsSync(adjacencyPath)) {
try {
adjacency = JSON.parse(readFileSync(adjacencyPath, 'utf8')) as Record<string, string[]>;
} catch (err) {
// A corrupt manifest must not kill the core region data: degrade to
// "no adjacency" (the LLM tool / frontier guidance simply switch off).
console.error('[regions] failed to load region-adjacency.json, continuing without it', err);
adjacency = {};
}
}
data = { idToKey, keyToInfo, keysByCountry, validKeys, adjacency };
return validKeys.size > 0;
} catch (err) {
console.error('[regions] failed to load region data', err);
data = null;
return false;
}
}
/** Test/dev seam: drop the loaded data (the next accessors behave as "no data"). */
export function resetRegions(): void {
data = null;
}
/** True when the manifest + geo loaded cleanly. */
export function hasRegionData(): boolean {
return data !== null;
}
/**
* Expand a nation's ISO_A3 country list to the region keys of all its sub-regions
* (file order, deduped). This is what turns a preset's country-level territory
* into region-level ownership at game creation. Returns the input unchanged when
* no region data is loaded (graceful degradation — behaves like the old model).
*/
export function expandCountriesToKeys(countries: string[]): string[] {
if (!data) return countries;
const out: string[] = [];
const seen = new Set<string>();
for (const c of countries) {
for (const key of data.keysByCountry[c] ?? []) {
if (!seen.has(key)) {
seen.add(key);
out.push(key);
}
}
}
return out;
}
/**
* Build the LLM reference table: region key -> "<name> (<parent ISO_A3>)", e.g.
* `moselle-rygy -> "Moselle (FRA)"`. Only the given keys are included (the caller
* passes the game's owned-region universe) so the prompt stays bounded.
*/
export function referenceForKeys(keys: Iterable<string>): Record<string, string> {
const out: Record<string, string> = {};
if (!data) return out;
for (const key of keys) {
const info = data.keyToInfo[key];
if (info) out[key] = info.parent ? `${info.name} (${info.parent})` : info.name;
}
return out;
}
/** The region key's human name (for the dossier), or undefined if unknown. */
export function regionName(key: string): string | undefined {
return data?.keyToInfo[key]?.name;
}
/** The union of every nation's territory region keys (the game's region universe). */
export function allTerritoryKeys(state: GameState): Set<string> {
const out = new Set<string>();
for (const n of Object.values(state.nations)) {
for (const key of n.territory) out.add(key);
}
return out;
}
/** The set of all valid region keys (to ignore hallucinated keys in applyTurnResult). */
export function validKeys(): ReadonlySet<string> {
return data ? data.validKeys : new Set<string>();
}
/**
* True when the region-adjacency manifest loaded with at least one entry.
* Callers (the server's jump route) use this to decide whether to hand the
* engine an adjacency resolver (which turns on the LLM's getNeighbours tool
* and the frontier prompt field) or fall back to the plain chat() path.
*/
export function hasAdjacency(): boolean {
return data !== null && Object.keys(data.adjacency).length > 0;
}
/**
* The union of the region keys that share a land border with any of the given
* keys — deduplicated, the queried keys themselves excluded, and sorted for
* determinism. This is the data behind the LLM's getNeighbours tool and the
* player-frontier computation in the turn prompt (v0.21, #16 P2). Returns
* `[]` when no region data (or no adjacency manifest) is loaded.
*/
export function neighboursOf(keys: Iterable<string>): string[] {
if (!data) return [];
const out = new Set<string>();
for (const key of keys) {
for (const n of data.adjacency[key] ?? []) out.add(n);
}
for (const key of keys) out.delete(key); // never report a key as its own neighbour
return [...out].sort();
}
+81 -27
View File
@@ -2,20 +2,35 @@
// sets LLM_STUB=1) so the whole loop is reproducible with no live model. It
// speaks the OpenAI chat-completions wire shape, so it plugs in as a Transport.
import { createLlmClient, type ChatMessage, type Transport } from './llm';
import { addDays, clampStat, type TurnResult } from '../shared/protocol';
import { addDays, clampStat, type TerritoryChange, type TurnEventSpec, type TurnResult } from '../shared/protocol';
import type { RoundItem } from '../shared/types';
export const ADVISOR_MARKER = '<<ADVISOR>>';
/** The parsed body of the user message the engine sends (see engine.buildPrompt). */
/** The parsed body of the user message the engine sends (see engine.buildUserPrompt). */
export interface StubPayload {
state?: {
turn: number;
date: string;
playerNationId: string;
nations: Record<string, { stats: Record<string, number> }>;
nations: Record<string, { stats: Record<string, number>; territory?: string[] }>;
};
action?: string | null;
chat?: { to: string; message: string } | null;
/** The raw pending round the engine emitted (one entry per queued item). */
pending?: RoundItem[];
/**
* Region keys owned by other nations that share a land border with the
* player's territory — the engine's `frontier` field, computed from the
* adjacency manifest (v0.21, #16 P2). The stub cannot call tools, so it
* reads the frontier from the prompt instead.
*/
frontier?: string[];
/**
* (v0.22, #16 P3) Region keys currently in no man's land (`state.unowned`),
* emitted by the engine's user prompt. The stub ignores this field — it
* never releases a region (see deterministicTurn), so no-man's-land behavior
* is covered by unit tests against applyTurnResult, not by the stub.
*/
unowned?: string[];
}
function truncate(s: string, n: number): string {
@@ -24,8 +39,28 @@ function truncate(s: string, n: number): string {
/**
* Pure deterministic TurnResult for a parsed payload. Bumps the player nation's
* military by 5 each turn (clamped to 0–100) and emits one event, so a caller can
* predict the exact next state for assertions.
* military by 5 each turn (clamped to 0–100) and emits one event per queued
* round item (action → military/success, diplomacy → diplomatic/partial), or a
* single political "The world moves on" event when the round is empty — so a
* caller can predict the exact next state for assertions. It always sets the
* player's military to (current + 5) and allies the player with the first other
* nation, advancing the date by 2 days.
*
* (v0.21, #16 P2) It also makes ONE contiguous conquest per turn: the player
* gains the first frontier region (sorted order) from its current owner, and
* that owner loses it. The stub bypasses the tool loop (it answers with plain
* content in one round), so the frontier comes from the prompt payload, not
* from a getNeighbours call. With an empty frontier (no controllable border)
* no territory change is emitted, keeping every existing assertion stable.
*
* (v0.22, #16 P3) The stub NEVER releases a region to no man's land (it
* always returns `unowned: []`) — e2e assertions rely on its fully-deterministic
* one-conquest behavior, so the release/re-claim path is exercised by unit
* tests only (see server/engine.test.ts).
*
* (v0.23, #16 P4a) The stub likewise NEVER proposes nation-management ops (it
* always returns `nationOps: []`) — the propose→confirm/reject flow is
* covered by unit tests only, keeping the e2e assertions untouched.
*/
export function deterministicTurn(p: StubPayload): TurnResult {
const state = p.state;
@@ -35,43 +70,62 @@ export function deterministicTurn(p: StubPayload): TurnResult {
const otherId = state
? (Object.keys(state.nations).find((id) => id !== pid) ?? '')
: 'us';
const items = p.pending ?? [];
const events = p.action
// The one deterministic region transfer: the player takes the first
// frontier region (sorted → stable) from whichever other nation owns it.
let territoryChanges: TerritoryChange[] = [];
const frontier = p.frontier ?? [];
if (state && frontier.length > 0) {
const key = frontier[0];
const loserId = Object.keys(state.nations).find(
(id) => id !== pid && (state.nations[id].territory ?? []).includes(key),
);
if (loserId) {
territoryChanges = [
{ nation: pid, gain: [key], lose: [] },
{ nation: loserId, gain: [], lose: [key] },
];
}
}
const events: TurnEventSpec[] =
items.length === 0
? [
{
nation: pid,
type: 'military' as const,
title: `Action: ${truncate(p.action, 60)}`,
text: 'Your move takes effect across the region.',
outcome: 'success' as const,
type: 'political',
title: 'The world moves on',
text: 'Weeks pass without a decisive event.',
outcome: 'neutral',
},
]
: p.chat
? [
{
: items.map((it) =>
it.kind === 'action'
? {
nation: pid,
type: 'military' as const,
title: `Action: ${truncate(it.text, 60)}`,
text: 'Your move takes effect across the region.',
outcome: 'success' as const,
}
: {
nation: pid,
type: 'diplomatic' as const,
title: 'Diplomatic outreach',
text: 'Your message is received by the target nation.',
text: 'Your message is received.',
outcome: 'partial' as const,
},
]
: [
{
nation: pid,
type: 'political' as const,
title: 'The world moves on',
text: 'Weeks pass; the great powers posture and rearm quietly.',
outcome: 'neutral' as const,
},
];
);
return {
date: addDays(state?.date ?? '1939-09-01', 2),
events,
stateChanges: [{ nation: pid, stat: 'military', op: 'set', value: mil }],
relations: otherId ? [{ a: pid, b: otherId, set: 'ally' }] : [],
territoryChanges: [],
territoryChanges,
unowned: [], // the stub never creates no man's land (see doc comment)
nationOps: [], // the stub never proposes nation ops (see doc comment)
};
}
+250 -7
View File
@@ -23,13 +23,88 @@ export interface RelationChange {
set: RelationStatus;
}
/** A nation gains/loses ISO_A3 regions this turn. */
/** A nation gains/loses region keys (see `public/region-keys.json`) this turn. */
export interface TerritoryChange {
nation: string;
gain: string[];
lose: string[];
}
// --- Nation-management ops (v0.23 P4a / v0.24 P4b, #16: the hybrid "LLM
// proposes, player confirms" model) ------------------------------------------
//
// Unlike stat / relation / territory deltas, a NationOp proposed in a turn is
// NOT applied by that turn. It is stored as a *pending proposal* in
// `GameState.pendingNationOps` and only takes effect when the player confirms
// it (optionally editing it) or is dropped when the player rejects it. All
// three kinds are implemented: rename (v0.23 P4a), split and merge (v0.24 P4b).
/**
* The identity reference a nation is addressed by inside a {@link NationOp}.
* The LLM may use either the nation's stable `id` (the `nations` record key,
* e.g. `f`) or its human-readable `name` (e.g. `France`); the engine resolves
* it to a concrete `nationId` (id first, then a unique name match — see the
* engine's `resolveNationRef`).
*/
/**
* A **rename** proposal: change a nation's human-readable `name`. Only the
* `name` changes — the stable `id`, its territory keys, its relations (keyed
* by id), and the player pointer are all left untouched, so nothing downstream
* breaks. `to` is the new display name.
*/
export interface RenameOp {
kind: 'rename';
/** The target nation's id or current name (see the note above). */
nationRef: string;
/** The new display name to apply when the player confirms. */
to: string;
}
/**
* A **split** proposal (v0.24, #16 P4b). Describes the new nations a source
* nation is divided into. On confirm the source is dissolved: each part gets a
* fresh id, the region keys it was given (restricted to keys the source
* actually owns — first claim wins), fresh baseline stats, and a copy of the
* source's relations; any of the source's unclaimed keys go to `parts[0]`.
* When the source is the player's own nation the player chooses which part
* they lead (the confirm request's `edits.playerPart`, default `parts[0]`).
*/
export interface SplitOp {
kind: 'split';
/** The id/name of the nation being split. */
nationRef: string;
/** The new nations created from the split. */
parts: Array<{ name: string; territory?: string[] }>;
}
/**
* A **merge** proposal (v0.24, #16 P4b). Folds several nations into a single
* surviving nation. On confirm the survivor keeps its id (renamed to `into`,
* or to the confirm request's `edits.name`), its territory becomes the union
* of all inputs' territories, it keeps its own stats, and it inherits the
* union of all inputs' relations (its own winning per third party, else the
* first input's); every non-survivor input is removed. If the player's nation
* was a non-survivor input the player pointer is re-pointed to the survivor.
*/
export interface MergeOp {
kind: 'merge';
/** The id/name of every nation folded into the result. */
nationRefs: string[];
/** The id/name of the nation that survives and keeps its identity. */
survivingRef: string;
/** The name to give the merged nation. */
into: string;
}
/**
* A structural operation on the set of nations that the LLM may propose in a
* turn (`TurnResult.nationOps`). See the section comment above for the hybrid
* propose→confirm semantics. All three kinds are implemented: rename (P4a),
* and split / merge (P4b, v0.24).
*/
export type NationOp = RenameOp | SplitOp | MergeOp;
/** One narrative event the LLM proposes for this turn. */
export interface TurnEventSpec {
nation: string;
@@ -46,16 +121,81 @@ export interface TurnResult {
stateChanges: StateChange[];
relations: RelationChange[];
territoryChanges: TerritoryChange[];
/**
* (v0.22, #16 P3) Region keys that become **unowned** — "no man's land" —
* this turn. The engine removes each key from its current (sole) owner so it
* ends the turn ownerless and marks it in `GameState.unowned`; the LLM
* narrates the cause (war, cataclysm, collapse) in `events`. Re-claiming is
* NOT expressed here: a nation re-claims an unowned region with an ordinary
* `gain` on that key. Only keys a nation currently owns can be released;
* empty on normal turns.
*/
unowned: string[];
/**
* (v0.23 P4a / v0.24 P4b, #16) Nation-management ops the LLM proposes this
* turn. These are NOT applied by the turn: each is appended to
* `GameState.pendingNationOps` as a proposal awaiting the player's
* confirm/reject. All three kinds (rename, split, merge) are implemented —
* a confirmed rename changes `Nation.name`; a confirmed split dissolves the
* source into its parts; a confirmed merge folds its inputs into the
* survivor. Empty on turns where the model proposes none.
*/
nationOps: NationOp[];
}
/** Per-region map payload: ISO_A3 -> owning nation + its stable color. */
/** Per-region map payload: region key -> owning nation + its stable color. */
export interface RegionOwner {
color: string;
owner: string;
ownerId: string;
}
/**
* The authoritative ownership map: a **region key** (see `public/region-keys.json`)
* -> the owning nation + its stable color. Owned at sub-region granularity (v0.19,
* #16 P1); a key absent from this map is unowned (rendered grey).
*/
export type RegionMap = Record<string, RegionOwner>;
/**
* Look up the owner record from the authoritative RegionMap by a RegionMap key.
* The RegionMap is keyed by **region key** (see `public/region-keys.json`) — one
* per owned sub-region (v0.19, #16 P1) — so `key` is a region key such as
* `moselle-rygy`, never a raw feature id such as `FR-57` and never a
* parent-country ISO_A3. Returns `undefined` for an empty/missing key or an
* unowned region.
*
* Pure + shared: the primitive "key → owner" lookup. The *map feature → owner*
* resolution (deciding which key to pass) lives in {@link mapFeatureOwner} below,
* which reads the feature's stamped `properties.regionKey` — never the repacked
* top-level `id` (MapLibre turns it into a numeric index, the "no owner" bug #6)
* and never the sub-region id.
*/
export function regionOwner(regions: RegionMap, key: string | null | undefined): RegionOwner | undefined {
if (!key) return undefined;
return regions[key];
}
/**
* Resolve the owning-nation record for a **rendered map feature** from the
* authoritative RegionMap. The choropleth renders sub-national regions, and the
* RegionMap is now keyed by **region key** (one per sub-region, v0.19 #16 P1),
* so a feature's owner is found via its `properties.regionKey` — the region key
* the client stamps from `public/region-keys.json` by the feature's stable id
* (see WorldMap) — and then `regionOwner`. This is the single shared source of
* truth for that resolution, so the "use `regionKey`, never the sub-region `id`
* / repacked `feature.id`" rule lives in one tested place rather than in the
* React component.
*
* Returns `undefined` for a missing feature/regionKey or an unowned region.
*/
export function mapFeatureOwner(
regions: RegionMap,
feature: { properties?: { regionKey?: unknown } } | null | undefined,
): RegionOwner | undefined {
const regionKey = feature?.properties?.regionKey;
return regionOwner(regions, typeof regionKey === 'string' ? regionKey : '');
}
/** Server -> client Server-Sent Events payload (see server/index.ts /sse). */
export type SseMessage =
| { type: 'state'; state: GameState }
@@ -72,17 +212,74 @@ export interface CreateGameResponse {
game: GameState;
}
export interface TurnRequest {
/** Free-text player action. Omit for a "jump forward" auto turn. */
action?: string;
/** Optional diplomatic message to a target nation. */
chat?: { to: string; message: string };
/** Queue a free-text player action onto the pending round (no turn advance). */
export interface AddActionRequest {
text: string;
}
export interface AddActionResponse {
game: GameState;
}
/** Queue a diplomatic message onto the pending round (no turn advance). */
export interface AddDiplomacyRequest {
to: string;
message: string;
}
export interface AddDiplomacyResponse {
game: GameState;
}
/**
* "Jump forward" — commit the whole pending round to the model in a single
* turn. The body is empty; everything being committed lives in `game.pending`.
*/
export type JumpRequest = Record<string, never>;
export interface TurnResponse {
state: GameState;
result: TurnResult;
}
/** Remove one queued item from the pending round, by its index in `game.pending`. */
export interface RemoveQueueItemRequest {
index: number;
}
export interface RemoveQueueItemResponse {
game: GameState;
}
/**
* (v0.23 P4a / v0.24 P4b, #16) Confirm a pending nation-op proposal by its
* index in `game.pendingNationOps`. A rename takes effect (the player may
* override the proposed name via `edits.name`); a split and a merge are fully
* applied (v0.24 P4b). No LLM call, no turn advance.
*/
export interface ConfirmNationOpRequest {
index: number;
/**
* Optional player edits applied on confirm.
* - `name`: the final display name — overrides a rename's `to`, a merge's
* `into`, or (for a split) the name of the part the player leads.
* - `playerPart`: for a split of the player's own nation, which part (index
* into the op's `parts`) the player will lead (default `0` when missing or
* out of range, so the player is never orphaned).
*/
edits?: { name?: string; playerPart?: number };
}
export interface ConfirmNationOpResponse {
game: GameState;
}
/**
* (v0.23, #16 P4a) Reject (drop) a pending nation-op proposal by its index
* in `game.pendingNationOps` without applying it. No LLM call, no turn advance.
*/
export interface RejectNationOpRequest {
index: number;
}
export interface RejectNationOpResponse {
game: GameState;
}
export interface AdvisorRequest {
/** Optional prompt to steer the brainstorm. */
prompt?: string;
@@ -100,6 +297,11 @@ export interface GameSummary {
date: string;
}
/** Response for deleting a saved game (see `DELETE /api/games/:id`). */
export interface DeleteGameResponse {
deleted: boolean;
}
/**
* Deterministic, stable per-nation color for the choropleth. Hashes the nation id
* to a hue; sat/light tuned for the dark command-center theme. Pure + shared so
@@ -114,6 +316,47 @@ export function nationColor(id: string): string {
return `hsl(${hue} 58% 46%)`;
}
// --- No man's land (v0.22, #16 P3) — the map presentation contract ---
//
// An unowned region has two distinct looks, and the difference is NOT in the
// RegionMap (a key absent there is simply unowned): it is decided by the
// client from `GameState.unowned` (the keys released mid-game). The constants
// and the one decision function live here — shared and pure — so the
// client's choropleth is the only consumer and the color contract is testable
// from the server-side tests (shared/*.test.ts is not in the vitest glob).
/** The distinct, visible neutral grey for a **no man's land** region (released mid-game). Hue-less by construction, so it can never collide with a nation's `nationColor` (`hsl(h 58% 46%)`, always chromatic). */
export const NO_MANS_LAND_FILL = '#3f3f46';
/** The border of a no-man's-land region (brighter than a plain unowned one). */
export const NO_MANS_LAND_STROKE = 'rgba(255,255,255,0.25)';
/** The faint neutral fill for a region no nation owns that was never released mid-game (a preset never assigned it). */
export const UNOWNED_FILL = 'rgba(148,163,184,0.05)';
/** The border of a plain unowned region. */
export const UNOWNED_STROKE = 'rgba(255,255,255,0.14)';
/** The border of an owned region (brighter than unowned). */
export const OWNED_STROKE = 'rgba(255,255,255,0.30)';
/** The hover-tooltip sub-line for a region with no owning nation. */
export function unownedTooltipLabel(isNoMansLand: boolean): string {
return isNoMansLand ? "No man's land" : 'No owner';
}
/**
* The fill + border for one sub-region, given its RegionMap entry
* (`undefined` = unowned) and whether its key is no man's land (released
* mid-game, i.e. in `GameState.unowned`). Pure + shared; see the section
* comment above for why the distinction is not encoded in the RegionMap.
*/
export function regionFillStyle(
owner: RegionOwner | undefined,
isNoMansLand: boolean,
): { fill: string; stroke: string } {
if (owner) return { fill: owner.color, stroke: OWNED_STROKE };
return isNoMansLand
? { fill: NO_MANS_LAND_FILL, stroke: NO_MANS_LAND_STROKE }
: { fill: UNOWNED_FILL, stroke: UNOWNED_STROKE };
}
/** Rebuild the full event list entry shape from a TurnEventSpec + turn/date. */
export function makeEvent(
spec: TurnEventSpec,
+71 -2
View File
@@ -1,5 +1,9 @@
// Domain types — the single source of truth shared by the frontend (src/), the
// backend (server/), and the LLM prompt contract. No runtime dependencies here.
// (The single `import type` below erases at compile time, so no runtime
// dependency on protocol.ts is introduced — see the GameState.pendingNationOps
// doc comment.)
import type { NationOp } from './protocol';
/** A nation's 0–100 status indices. Every value is clamped to 0–100 by the engine. */
export interface NationStats {
@@ -26,8 +30,10 @@ export const RELATION_STATUSES: RelationStatus[] = [
];
/**
* A single nation in the world. `territory` holds ISO_A3 codes; the map colors
* each of those regions with this nation's stable color (see protocol.nationColor).
* A single nation in the world. `territory` holds **region keys** (see
* `public/region-keys.json`) — one per owned sub-region, so the choropleth can
* color individual sub-regions, not whole countries (v0.19, #16 P1). The map
* resolves each sub-region's owner by its region key (see protocol.mapFeatureOwner).
*/
export interface Nation {
id: string;
@@ -74,6 +80,28 @@ export interface EventEntry {
outcome: EventOutcome;
}
/**
* A single item queued in the current round, waiting to be committed by a
* "Jump forward". `kind: 'action'` is a free-text player move; `kind:
* 'diplomacy'` is a message to a specific nation (`to`).
*/
export type RoundItem = {
kind: 'action' | 'diplomacy';
text: string;
to?: string;
};
/**
* Monotonic revision counter for a game, bumped by the server on every
* mutation (queue add/remove, turn commit) and persisted with the state.
* Clients use it to tell a fresh state from a stale one: an SSE `state`/`turn`
* snapshot (e.g. the on-connect resync) that arrives *after* a fresher REST
* response carries a lower version and must be ignored, never applied
* (see the client's "never go backwards" rule in src/App.tsx). Legacy games
* saved before this field existed are treated as version 0 by consumers.
*/
export type GameVersion = number;
/** The full, persisted state of one game. Saved to SQLite by id. */
export interface GameState {
id: string;
@@ -84,6 +112,47 @@ export interface GameState {
date: string;
nations: Record<string, Nation>;
events: EventEntry[];
/**
* Actions + diplomatic messages queued this round but not yet committed.
* Adding an item never advances the turn; a "Jump forward" processes the whole
* batch in a single turn and clears this back to `[]`.
*/
pending: RoundItem[];
/**
* Monotonic revision counter (see GameVersion). Bumped on every mutation so
* clients can reject stale SSE snapshots; see the "never go backwards" rule
* in src/App.tsx. Starts at 1 on game creation.
*/
version: GameVersion;
/**
* (v0.22, #16 P3) Region keys that became **unowned** — "no man's land" —
* during play: a region that was owned and was released to no owner by a
* committed turn (the LLM narrates the cause in that turn's events). This is
* deliberately distinct from the many regions a preset never assigns, which
* are also unowned but were never *released* mid-game; only the keys in this
* list render as the distinct visible no-man's-land grey (see
* protocol.regionFillStyle). A region leaves the list when any nation
* re-claims it (an ordinary `gain`). Always `[]` on a fresh game — no
* man's land can only arise mid-game. Rows saved before v0.22 load with
* this defaulted to `[]` (see server/db.ts).
*/
unowned: string[];
/**
* (v0.23, #16 P4a; v0.24, #16 P4b) Nation-management ops the LLM has
* proposed but the player has not yet resolved: a *pending proposal* list,
* as opposed to `pending` (the current round's queued player actions). A
* turn NEVER applies one — `applyTurnResult` appends the turn's
* `nationOps` to this list, and each proposal survives across turns until
* the player resolves it: confirming applies it (a rename changes
* `Nation.name` only; a split partitions the nation's region-key territory
* into the new nations' territories; a merge folds the inputs' territory
* into the survivor) and removes it; rejecting removes it without
* applying. Always `[]` on a fresh game; rows saved before v0.23 load with
* this defaulted to `[]` (see server/db.ts). (The `NationOp` type lives in
* protocol.ts; the import there is type-only, so this file still has no
* runtime dependencies.)
*/
pendingNationOps: NationOp[];
}
/**
+386 -115
View File
@@ -7,8 +7,6 @@ import {
ListTree,
Loader2,
Map as MapIcon,
Minus,
Plus,
Radar,
} from 'lucide-react';
import { Toaster } from './components/ui/sonner';
@@ -18,7 +16,7 @@ import { Select, SelectContent, SelectItem, SelectTrigger, SelectValue } from '.
import { cn } from './lib/utils';
import PresetPicker from './components/PresetPicker';
import NationSelect from './components/NationSelect';
import WorldMap, { type MapApi } from './components/WorldMap';
import WorldMap from './components/WorldMap';
import FloatingWindow from './components/FloatingWindow';
import MapLegend from './components/MapLegend';
import NationPanel from './components/NationPanel';
@@ -46,13 +44,20 @@ function toastError(e: unknown): void {
}
// ---------------------------------------------------------------------------
// Floating-window collapse persistence (positions live in FloatingWindow itself).
// Floating-window collapse + dock persistence.
// (Free-floating *positions* live in FloatingWindow itself, per id.)
// ---------------------------------------------------------------------------
const FLOAT_COLLAPSED_KEY = 'history.floatwin.v1.collapsed';
const FLOAT_DOCK_KEY = 'history.floatwin.v1.dock';
/** Every collapsible HUD panel (the slim header is never collapsed). */
const PANEL_WINDOW_IDS = ['dossier', 'feed', 'action', 'legend', 'zoom'] as const;
/**
* Every collapsible HUD panel (the slim, pinned header is never collapsed).
* The three substantive panels (dossier / feed / action) are also dockable;
* the legend stays a small floating widget, and there is no longer a "Map"
* window.
*/
const PANEL_WINDOW_IDS = ['dossier', 'feed', 'action', 'legend'] as const;
function loadCollapsedMap(): Record<string, boolean> {
try {
@@ -78,6 +83,33 @@ function persistCollapsedMap(m: Record<string, boolean>): void {
}
}
/** A dock mode: a docked edge, or 'float' (free-floating, the default). */
type DockMode = 'left' | 'right' | 'float';
function loadDockMap(): Record<string, DockMode> {
try {
const raw = localStorage.getItem(FLOAT_DOCK_KEY);
if (raw == null) return {};
const v: unknown = JSON.parse(raw);
if (!v || typeof v !== 'object' || Array.isArray(v)) return {};
const out: Record<string, DockMode> = {};
for (const [k, val] of Object.entries(v as Record<string, unknown>)) {
if (val === 'left' || val === 'right' || val === 'float') out[k] = val;
}
return out;
} catch {
return {};
}
}
function persistDockMap(m: Record<string, DockMode>): void {
try {
localStorage.setItem(FLOAT_DOCK_KEY, JSON.stringify(m));
} catch {
/* storage unavailable — dock choices just won't persist */
}
}
// ---------------------------------------------------------------------------
// Active-game persistence. The id of the game the user is (or was last) playing
// is remembered in localStorage, so a page refresh drops them straight back
@@ -111,6 +143,28 @@ function clearActiveGameId(): void {
}
}
// ---------------------------------------------------------------------------
// Hash routing. The active game's id lives in the URL fragment: home is `#/`
// (a bare page with no hash is also home) and an active game is `#/game/<id>`.
// This manual hash sync — no react-router, no server-side route — fits the
// existing state-based router and is static/Traefik safe, because the fragment
// never reaches the server (every non-API GET just serves `index.html`). The
// localStorage active-game id above stays as the fallback for a bare `/` load;
// the URL hash takes precedence when present.
// ---------------------------------------------------------------------------
/** The game id encoded in `#/game/<id>`, or `null` when the hash is home/bare. */
function hashGameId(hash: string): string | null {
const m = hash.match(/^#\/game\/(.+)$/);
return m && m[1].length > 0 ? m[1] : null;
}
/** Write the home route (`#/`) into the URL hash unless it is already home/bare. */
function setHomeHash(): void {
const h = window.location.hash;
if (h !== '' && h !== '#/') window.location.hash = '#/';
}
export default function App() {
const [screen, setScreen] = useState<Screen>({ name: 'home' });
const [presets, setPresets] = useState<PresetMeta[]>([]);
@@ -119,10 +173,45 @@ export default function App() {
const [regions, setRegions] = useState<RegionMap>({});
const [advisors, setAdvisors] = useState<string[]>([]);
const [busy, setBusy] = useState(false);
// Separate from `busy`: an advisor fetch is its own LLM call. It must NOT
// gate the turn flow ("Jump forward" stays enabled while the advisor thinks) —
// it only gates the advisor UI (the "Ask advisor" button + its hint).
const [advisorBusy, setAdvisorBusy] = useState(false);
// Separate again: a pending nation-op confirm/reject is its own (fast,
// non-LLM) request. It gates only the nation-op dialog controls, never the
// turn flow — "Jump forward" stays usable while it is in flight.
const [opBusy, setOpBusy] = useState(false);
// The id of the game the user is/was last in (mirrors localStorage) and the
// list of saved games (newest first) shown on the home screen.
const [activeGameId, setActiveGameId] = useState<string | null>(() => readActiveGameId());
const [savedGames, setSavedGames] = useState<GameSummary[]>([]);
// Once the boot fetch resolves (success or fallback), allow the URL-sync effect
// to start writing the hash. Until then, a deep link in the URL must not be
// clobbered by an app-driven "home" write during the initial render.
const bootedRef = useRef(false);
// Latest game + handlers, read by the (mount-once) hashchange listener so it
// never acts on a stale closure. Written each render (same pattern as sse.ts).
const latestRef = useRef<{ game: GameState | null; goHome: () => void; loadGame: (id: string) => void } | null>(null);
// The single entry point for adopting a full game state — SSE `state`/`turn`
// events AND the REST responses (add/remove/jump) AND game loads all flow
// through here. Two rules:
// • a *different* game id (new game, deep link, resume) is always adopted;
// • the *same* game is adopted only when its `version` is not older than
// the current state's ("never go backwards").
// The comparison happens inside the functional updater, so it always reads
// the latest committed state — never a stale closure. This is what makes a
// late-arriving stale SSE snapshot (e.g. the on-connect resync taken just
// before an add was saved, or an EventSource auto-reconnect) harmless: it
// carries a lower version than the fresher state the REST response already
// applied, so it is dropped instead of clobbering the queued item (#10).
// Legacy games saved before `version` existed are treated as version 0.
const applyState = useCallback((s: GameState) => {
setGame((cur) => {
if (!cur || cur.id !== s.id) return s;
return (s.version ?? 0) >= (cur.version ?? 0) ? s : cur;
});
}, []);
// On the home screen: load the scenario manifest and the list of saved games
// (newest-updated first) so the user can resume a prior game.
@@ -142,28 +231,36 @@ export default function App() {
};
}, [screen.name]);
// On first mount, auto-resume the last active game (if any is stored): fetch
// its persisted state, remember it, and drop the user straight back into the
// game screen. The map is refetched by the effect below (keyed on `game`) and
// the `useSse(game?.id)` effect re-attaches the stream, resyncing from the
// server on connect. If the id is stale (404 / deleted), clear it and fall
// back to the home screen gracefully.
// On first mount, decide which game to show and load it. A deep link in the
// URL (`#/game/<id>`) takes precedence over the localStorage auto-resume; a
// bare page (no hash) falls back to the stored active game. The map is
// refetched by the effect below (keyed on `game`) and `useSse(game?.id)`
// re-attaches the stream, resyncing from the server on connect. A bad or
// missing id (404) must never crash: we clear the hash to `#/`, drop any
// stale stored id, and stay on the home screen. Once boot resolves (success
// or fallback) `bootedRef` flips so the URL-sync effect may start writing.
useEffect(() => {
const id = readActiveGameId();
if (!id) return;
const id = hashGameId(window.location.hash) ?? readActiveGameId();
if (!id) {
bootedRef.current = true; // nothing to load — activate URL syncing
return;
}
let alive = true;
(async () => {
try {
const { game } = await api.getGame(id);
if (!alive) return;
persistActiveGameId(id); // remember it so a future bare `/` load resumes it
setActiveGameId(id);
setGame(game);
applyState(game);
setScreen({ name: 'game' });
} catch {
if (alive) {
if (!alive) return;
clearActiveGameId();
setActiveGameId(null);
}
setHomeHash(); // bad/missing id → fall back to the home screen
} finally {
bootedRef.current = true; // boot resolved — activate URL syncing
}
})();
return () => {
@@ -171,6 +268,38 @@ export default function App() {
};
}, []);
// Keep the URL in sync with the current screen: a loaded game is
// `#/game/<id>`; everything else (home and the pick screens) is `#/`. This is
// the single writer of the hash for app-driven transitions (game created,
// resumed, or leaving for home). It only writes when the desired hash differs
// from the current one, so it never triggers a redundant `hashchange`.
useEffect(() => {
if (!bootedRef.current) return;
const desired = screen.name === 'game' && game ? `#/game/${game.id}` : '#/';
if (window.location.hash !== desired) window.location.hash = desired;
}, [screen.name, game?.id]);
// React to user-driven hash changes: manual edits and browser back/forward.
// Only re-act when the parsed id actually differs from the loaded game (or the
// hash went home while we're in a game), so the writes above never loop. Uses
// `latestRef` so the mount-once effect always sees the current game + handlers.
useEffect(() => {
const onHashChange = () => {
const cur = latestRef.current;
if (!cur) return;
const id = hashGameId(window.location.hash);
if (id) {
if (id === cur.game?.id) return; // already showing this game — no-op
void cur.loadGame(id);
} else if (cur.game) {
cur.goHome(); // hash is home but we're in a game — return home
}
// else: hash is home and we're already on home/pick — nothing to do
};
window.addEventListener('hashchange', onHashChange);
return () => window.removeEventListener('hashchange', onHashChange);
}, []);
// Keep the choropleth in sync with whatever state is shown (territory changes).
useEffect(() => {
if (!game) return;
@@ -181,10 +310,15 @@ export default function App() {
}, [game]);
// Resync from the persisted server state on connect and after every turn.
// Handlers only call the stable setGame, so no stale-closure concerns.
useSse(game?.id ?? null, {
onState: (s) => setGame(s),
onTurn: (s) => setGame(s),
onState: applyState,
onTurn: applyState,
// The game disappeared while this tab had it open — either deleted from
// another tab (the server broadcasts an SSE `error`) or a stale deep link to
// a missing game (the SSE connect emits `error`). Return this tab home.
onError: (msg) => {
if (/deleted|not found/i.test(msg)) latestRef.current?.goHome();
},
});
const play = useCallback(async (presetId: string) => {
@@ -213,7 +347,7 @@ export default function App() {
// Remember this as the active game so a refresh resumes it.
persistActiveGameId(game.id);
setActiveGameId(game.id);
setGame(game);
applyState(game);
setAdvisors([]);
setScreen({ name: 'game' });
} catch (e) {
@@ -225,78 +359,143 @@ export default function App() {
[screen],
);
const runAction = useCallback(
async (action: string) => {
// Add an action to the pending round. Fast, non-LLM — no `busy`; the pending
// list updates from the response and the SSE `state` event. Both are
// version-gated via applyState, so the item can never be clobbered by a
// stale snapshot (#10).
const runAddAction = useCallback(
async (text: string) => {
if (!game) return;
setBusy(true);
try {
const { state } = await api.turn(game.id, action);
setGame(state);
const { game: g } = await api.addAction(game.id, text);
applyState(g);
} catch (e) {
toastError(e);
} finally {
setBusy(false);
}
},
[game],
[game, applyState],
);
const runChat = useCallback(
// Add a diplomatic message to the pending round. Fast, non-LLM — no `busy`.
const runAddDiplomacy = useCallback(
async (to: string, message: string) => {
if (!game) return;
setBusy(true);
try {
const { state } = await api.turn(game.id, undefined, { to, message });
setGame(state);
const { game: g } = await api.addDiplomacy(game.id, to, message);
applyState(g);
} catch (e) {
toastError(e);
}
},
[game, applyState],
);
// Remove a queued item by index. Fast, non-LLM — no `busy`; the pending list
// updates from the response and the SSE `state` event (version-gated).
const runRemoveQueueItem = useCallback(
async (index: number) => {
if (!game) return;
try {
const { game: g } = await api.removeQueueItem(game.id, index);
applyState(g);
} catch (e) {
toastError(e);
}
},
[game, applyState],
);
// Apply a pending nation op the model proposed (confirm; `edits.name`
// overrides a rename/merge name, `edits.playerPart` picks the player's
// successor part in a split). Fast, non-LLM — gated by `opBusy`, not `busy`.
// The version-bumped state comes back in the response and the SSE `state` event.
const runConfirmNationOp = useCallback(
async (index: number, edits?: { name?: string; playerPart?: number }) => {
if (!game) return;
setOpBusy(true);
try {
const { game: g } = await api.confirmNationOp(game.id, index, edits);
applyState(g);
toast.success('Nation change applied');
} catch (e) {
toastError(e);
} finally {
setBusy(false);
setOpBusy(false);
}
},
[game],
[game, applyState],
);
// Drop a pending nation op (reject / dismiss). Fast, non-LLM — `opBusy`.
const runRejectNationOp = useCallback(
async (index: number) => {
if (!game) return;
setOpBusy(true);
try {
const { game: g } = await api.rejectNationOp(game.id, index);
applyState(g);
} catch (e) {
toastError(e);
} finally {
setOpBusy(false);
}
},
[game, applyState],
);
// Jump forward: the single LLM call that commits the pending round. Only this
// sets `busy` (the adds above are fast and non-LLM).
const runJump = useCallback(async () => {
if (!game) return;
setBusy(true);
try {
const { state } = await api.jump(game.id);
setGame(state);
applyState(state);
} catch (e) {
toastError(e);
} finally {
setBusy(false);
}
}, [game]);
}, [game, applyState]);
// Ask the advisor: a separate (slow) LLM call. It sets its own `advisorBusy`
// flag (distinct from the turn `busy`) and clears it in `finally`, so the flag
// is released on both success and error. Asking never advances a turn and
// never touches the turn `busy` state — "Jump forward" stays usable.
const askAdvisor = useCallback(
async (prompt?: string) => {
if (!game) return;
setAdvisorBusy(true);
try {
const { suggestions } = await api.advisor(game.id, prompt);
setAdvisors(suggestions);
} catch (e) {
toastError(e);
} finally {
setAdvisorBusy(false);
}
},
[game],
);
const resumeGame = useCallback(async (id: string) => {
// Load (fetch + show) a saved game by id. Shared by the home screen's resume
// affordances and by the hash router when the URL points at a different game.
// On failure (deleted / 404) it never throws: it clears the stale reference,
// clears the hash to `#/`, and stays on the home screen.
const loadGame = useCallback(async (id: string) => {
setLoading(true);
try {
const { game } = await api.getGame(id);
// Make this the active game again so a refresh keeps resuming it.
// Make this the active game so a bare `/` reload keeps resuming it.
persistActiveGameId(id);
setActiveGameId(id);
setGame(game);
applyState(game);
setAdvisors([]);
setScreen({ name: 'game' });
} catch (e) {
// Deleted / not found: clear any stale reference and stay on home.
clearActiveGameId();
setActiveGameId(null);
setHomeHash();
setScreen({ name: 'home' });
toastError(e);
} finally {
@@ -304,6 +503,9 @@ export default function App() {
}
}, []);
// The home screen's "resume" affordances just load a saved game by id.
const resumeGame = useCallback((id: string) => void loadGame(id), [loadGame]);
const goHome = useCallback(() => {
setScreen({ name: 'home' });
setGame(null);
@@ -311,6 +513,32 @@ export default function App() {
setAdvisors([]);
}, []);
// Delete a saved game. Removes it from the "Saved games" list, clears it if it
// was the remembered active game, and heads home if it's the one currently
// shown. The server also broadcasts an SSE `error` to any *other* open tab of
// this game, which the `useSse` `onError` handler above turns into a go-home.
const runDeleteGame = useCallback(
async (id: string) => {
try {
await api.deleteGame(id);
} catch (e) {
toastError(e);
return;
}
setSavedGames((prev) => prev.filter((g) => g.id !== id));
if (activeGameId === id) {
clearActiveGameId();
setActiveGameId(null);
}
if (game?.id === id) goHome();
toast.success('Game deleted');
},
[activeGameId, game, goHome],
);
// Expose the latest game + handlers to the mount-once hashchange listener.
latestRef.current = { game, goHome, loadGame };
if (screen.name === 'game' && game) {
return (
<>
@@ -320,11 +548,16 @@ export default function App() {
game={game}
regions={regions}
busy={busy}
advisorBusy={advisorBusy}
opBusy={opBusy}
advisors={advisors}
onAction={runAction}
onChat={runChat}
onAddAction={runAddAction}
onAddDiplomacy={runAddDiplomacy}
onRemoveQueueItem={runRemoveQueueItem}
onAdvisor={askAdvisor}
onJump={runJump}
onConfirmNationOp={runConfirmNationOp}
onRejectNationOp={runRejectNationOp}
onHome={goHome}
/>
</>
@@ -350,6 +583,7 @@ export default function App() {
savedGames={savedGames}
activeGameId={activeGameId}
onResume={resumeGame}
onDelete={runDeleteGame}
/>
</>
);
@@ -358,39 +592,67 @@ export default function App() {
interface GameScreenProps {
game: GameState;
regions: RegionMap;
/** A turn ("Jump forward") is in flight — drives the turn flow + commit button. */
busy: boolean;
/** An advisor fetch is in flight — drives the advisor UI only (never the turn). */
advisorBusy: boolean;
/** A nation-op confirm/reject is in flight — drives the dialog controls only. */
opBusy: boolean;
advisors: string[];
onAction: (a: string) => void;
onChat: (to: string, m: string) => void;
onAddAction: (a: string) => void;
onAddDiplomacy: (to: string, m: string) => void;
onRemoveQueueItem: (index: number) => void;
onAdvisor: (p?: string) => void;
onJump: () => void;
onConfirmNationOp: (index: number, edits?: { name?: string; playerPart?: number }) => void;
onRejectNationOp: (index: number) => void;
onHome: () => void;
}
/**
* The main play view — a full-bleed world map with a floating HUD. The MapLibre
* map is a fixed, full-viewport background (z-0); over it float draggable,
* collapsible windows: a slim header bar (scenario, turn + date, player nation,
* live status, "Focus map" collapse-all) at the top, the nation dossier
* (top-left), the event feed (right), the "Your move" command deck
* (bottom-center), the nation-color legend (bottom-left), and a tiny map zoom
* control (bottom-right). Each window remembers its dragged position, and
* clicking one raises it above its siblings. Pan/zoom/click on the map stays
* fully available in the gaps between windows.
* map is a fixed, full-viewport background (z-0) that the user drives directly
* (wheel/trackpad zoom + drag pan — there is no floating zoom control). Over it:
* a slim **pinned** header bar (fixed, non-movable, centered at the top a few
* px down; scenario, turn + date, player nation, live status, "Focus map"
* collapse-all); the nation dossier, the event feed, and the "Your move"
* command deck — each free-floating by default (at the same first-run positions
* as before) but **dockable** into a full-height left or right pane, the choice
* being remembered; and the nation-color legend, which stays a small floating
* widget (not dockable). Each floating window remembers its dragged position,
* and clicking one raises it above its siblings. Pan/zoom/click on the map
* stays fully available in the gaps between windows.
*/
function GameScreen({
game,
regions,
busy,
advisorBusy,
opBusy,
advisors,
onAction,
onChat,
onAddAction,
onAddDiplomacy,
onRemoveQueueItem,
onAdvisor,
onJump,
onConfirmNationOp,
onRejectNationOp,
onHome,
}: GameScreenProps) {
// Which nation's dossier to show. Defaults to the player; remounts per game.
const [viewingId, setViewingId] = useState(game.playerNationId);
// When the dossier target was set by a map click, remember which sub-region
// was clicked, for a small label in the dossier. The label shows only the
// region's name. Cleared when the user picks a nation via the manual Inspect
// select.
const [selectedRegion, setSelectedRegion] = useState<{ name?: string } | null>(null);
const focusNation = useCallback(
(id: string, info?: { name?: string }) => {
setViewingId(id);
setSelectedRegion(info ?? null);
},
[],
);
const player = game.nations[game.playerNationId];
const viewed = game.nations[viewingId] ?? player;
const nations = Object.values(game.nations).sort((a, b) => a.name.localeCompare(b.name));
@@ -417,11 +679,23 @@ function GameScreen({
});
}, []);
// Tiny map API (zoom in/out) exposed by WorldMap for the floating control.
const mapApiRef = useRef<MapApi | null>(null);
const handleMapReady = useCallback((api: MapApi | null) => {
mapApiRef.current = api;
// Dock state for the three dockable panels (dossier / feed / action),
// persisted per id (survives reloads). The default is 'float' — the current
// first-run positions — so nothing visually changes until the user docks
// something. The legend is not dockable; the header is pinned.
const [dock, setDock] = useState<Record<string, DockMode>>(loadDockMap);
const setDockFor = useCallback((id: string, mode: DockMode) => {
setDock((prev) => {
const next = { ...prev, [id]: mode };
persistDockMap(next);
return next;
});
}, []);
// The `dock` prop expects a concrete edge, or `undefined` to free-float.
const dockOf = (id: string) => {
const m = dock[id];
return m === 'left' || m === 'right' ? m : undefined;
};
return (
<div className="min-h-screen">
@@ -431,14 +705,16 @@ function GameScreen({
playerNationId={game.playerNationId}
nations={game.nations}
presetId={game.presetId}
onFocusNation={setViewingId}
onMapReady={handleMapReady}
unowned={game.unowned ?? []}
onFocusNation={focusNation}
/>
{/* Slim floating header: brand, turn + date, player nation, live status, Focus map. */}
{/* Pinned top bar: brand, turn + date, player nation, live status, Focus map.
Fixed and non-movable, centered at the top a few px from the top edge. */}
<FloatingWindow
id="header"
anchor="top-center"
dataTestId="top-bar"
pinned
collapsible={false}
title={
<div className="flex min-w-0 items-center gap-3">
@@ -485,17 +761,24 @@ function GameScreen({
{player?.name ?? game.playerNationId}
</span>
</div>
{/* Three-state live status: advisor fetch in flight → "Advisor
thinking…"; else a turn in flight → "Simulating…"; else "Idle".
Both LLM-in-flight states share the amber spinner; idle is muted. */}
<span
data-testid="status-indicator"
className={cn(
'flex items-center gap-1.5 rounded-full border px-2.5 py-1 text-xs font-medium',
busy
advisorBusy || busy
? 'border-primary/40 bg-primary/10 text-primary'
: 'border-border bg-muted/40 text-muted-foreground',
)}
>
{busy ? <Loader2 className="size-3 animate-spin" /> : <CircleDot className="size-3" />}
{busy ? 'Simulating…' : 'Idle'}
{advisorBusy || busy ? (
<Loader2 className="size-3 animate-spin" />
) : (
<CircleDot className="size-3" />
)}
{advisorBusy ? 'Advisor thinking…' : busy ? 'Simulating…' : 'Idle'}
</span>
<Button
variant="secondary"
@@ -511,13 +794,16 @@ function GameScreen({
}
/>
{/* Nation dossier, top-left. */}
{/* Nation dossier, top-left by default; dockable into a left/right pane. */}
<FloatingWindow
id="dossier"
dataTestId="panel-dossier"
anchor="top-left"
width={300}
title="Dossier"
titleIcon={<BookOpen className="size-4" />}
dock={dockOf('dossier')}
onDockChange={(m) => setDockFor('dossier', m)}
collapsed={!!collapsed.dossier}
onCollapsedChange={(c) => setCollapsedFor('dossier', c)}
bodyClassName="max-h-[56vh] overflow-y-auto"
@@ -526,7 +812,14 @@ function GameScreen({
<div className="mb-1.5 text-xs font-medium uppercase tracking-wide text-muted-foreground">
Inspect
</div>
<Select value={viewingId} onValueChange={setViewingId}>
<Select
value={viewingId}
onValueChange={(id) => {
// A manual pick supersedes a map-click selection: clear the label.
setViewingId(id);
setSelectedRegion(null);
}}
>
<SelectTrigger className="w-full" data-testid="inspect-select">
<SelectValue />
</SelectTrigger>
@@ -538,13 +831,19 @@ function GameScreen({
))}
</SelectContent>
</Select>
{selectedRegion && (
<div className="mt-1.5 truncate text-[11px] text-muted-foreground" data-testid="selected-region">
Selected: {selectedRegion.name ?? 'region'}
</div>
)}
</div>
<NationPanel nation={viewed} nations={game.nations} isPlayer={viewingId === game.playerNationId} inWindow />
</FloatingWindow>
{/* Event feed, right side. */}
{/* Event feed, right side by default; dockable into a left/right pane. */}
<FloatingWindow
id="feed"
dataTestId="panel-feed"
anchor="right"
width={330}
title="Event feed"
@@ -554,6 +853,8 @@ function GameScreen({
{game.events.length}
</Badge>
}
dock={dockOf('feed')}
onDockChange={(m) => setDockFor('feed', m)}
collapsed={!!collapsed.feed}
onCollapsedChange={(c) => setCollapsedFor('feed', c)}
bodyClassName="h-[52vh]"
@@ -561,25 +862,23 @@ function GameScreen({
<EventFeed events={game.events} nations={game.nations} inWindow />
</FloatingWindow>
{/* Command deck ("Your move"), bottom-center — the prominent typing spot. */}
{/* Command deck ("Your move"), bottom-center by default; dockable. */}
<FloatingWindow
id="action"
dataTestId="panel-action"
anchor="bottom-center"
width={370}
title="Your move"
titleIcon={<Radar className="size-4 text-primary" />}
titleExtra={
<Button
variant="secondary"
size="sm"
onClick={onJump}
disabled={busy}
data-testid="jump-forward"
className="shrink-0"
>
{busy ? 'Simulating…' : 'Jump forward'}
</Button>
game.pending.length > 0 ? (
<Badge variant="secondary" className="shrink-0 text-xs tabular-nums" data-testid="title-queued">
{game.pending.length} queued
</Badge>
) : undefined
}
dock={dockOf('action')}
onDockChange={(m) => setDockFor('action', m)}
collapsed={!!collapsed.action}
onCollapsedChange={(c) => setCollapsedFor('action', c)}
bodyClassName="max-h-[72vh] overflow-y-auto"
@@ -587,11 +886,16 @@ function GameScreen({
<ActionPanel
game={game}
busy={busy}
advisorBusy={advisorBusy}
opBusy={opBusy}
advisors={advisors}
onAction={onAction}
onChat={onChat}
onAddAction={onAddAction}
onAddDiplomacy={onAddDiplomacy}
onRemoveQueueItem={onRemoveQueueItem}
onAdvisor={onAdvisor}
onJump={onJump}
onConfirmNationOp={onConfirmNationOp}
onRejectNationOp={onRejectNationOp}
inWindow
/>
</FloatingWindow>
@@ -608,39 +912,6 @@ function GameScreen({
>
<MapLegend regions={regions} />
</FloatingWindow>
{/* Tiny floating zoom control, bottom-right (clear of the attribution). */}
<FloatingWindow
id="zoom"
anchor="bottom-right"
width={88}
title="Map"
titleIcon={<MapIcon className="size-4" />}
offset={{ y: -28 }}
collapsed={!!collapsed.zoom}
onCollapsedChange={(c) => setCollapsedFor('zoom', c)}
>
<div className="flex items-center justify-center gap-1.5 p-2.5">
<Button
variant="secondary"
size="sm"
onClick={() => mapApiRef.current?.zoomIn()}
aria-label="Zoom in"
data-testid="zoom-in"
>
<Plus className="size-4" />
</Button>
<Button
variant="secondary"
size="sm"
onClick={() => mapApiRef.current?.zoomOut()}
aria-label="Zoom out"
data-testid="zoom-out"
>
<Minus className="size-4" />
</Button>
</div>
</FloatingWindow>
</div>
);
}
+232 -51
View File
@@ -1,47 +1,94 @@
import { useState } from 'react';
import { Loader2, Radar, Send } from 'lucide-react';
import { Loader2, MessageSquare, PenLine, Radar, Trash2, Zap } from 'lucide-react';
import { Badge } from './ui/badge';
import { Button } from './ui/button';
import { Card, CardContent, CardHeader, CardTitle } from './ui/card';
import {
Dialog,
DialogContent,
DialogDescription,
DialogFooter,
DialogHeader,
DialogTitle,
} from './ui/dialog';
import { Input } from './ui/input';
import { Textarea } from './ui/textarea';
import { Tabs, TabsContent, TabsList, TabsTrigger } from './ui/tabs';
import { Select, SelectContent, SelectItem, SelectTrigger, SelectValue } from './ui/select';
import type { GameState } from '@shared/types';
import NationOpDialog from './NationOpDialog';
import type { GameState, RoundItem } from '@shared/types';
interface Props {
game: GameState;
/** A turn is currently resolving (action/chat/jump) — disable those controls. */
/** A jump (the only turn LLM call) is currently in flight — disable the commit. */
busy: boolean;
/**
* An advisor fetch (a separate LLM call) is in flight. Distinct from `busy`:
* it gates only the advisor UI (the "Ask advisor" button + its hint) and must
* never disable "Jump forward" or the rest of the turn flow.
*/
advisorBusy: boolean;
/**
* A pending nation-op confirm/reject request is in flight. Distinct from
* `busy`: it gates only the nation-op dialog controls, never the turn flow.
*/
opBusy: boolean;
/** Advisor brainstorm suggestions from the last request. */
advisors: string[];
onAction: (action: string) => void;
onChat: (to: string, message: string) => void;
/** Queue a free-text action onto the pending round (no turn advance). */
onAddAction: (text: string) => void;
/** Queue a diplomatic message onto the pending round (no turn advance). */
onAddDiplomacy: (to: string, message: string) => void;
/** Remove one queued item by its index in `game.pending` (no turn advance). */
onRemoveQueueItem: (index: number) => void;
onAdvisor: (prompt?: string) => void;
/** Commit the whole pending round in a single LLM turn. */
onJump: () => void;
/**
* Apply a pending nation op: `edits.name` overrides a rename's target name
* (or a merge's name); `edits.playerPart` picks the player's successor part
* in a split (default 0).
*/
onConfirmNationOp: (index: number, edits?: { name?: string; playerPart?: number }) => void;
/** Drop (reject) a pending nation op by its index. */
onRejectNationOp: (index: number) => void;
/**
* Render without the outer card chrome (the surrounding floating window
* provides the border, the "Your move" title, and the "Jump forward" button
* in its title bar). Same content, same testids.
* provides the border and the "Your move" title). Same content, same testids.
*/
inWindow?: boolean;
}
/** One-line, display-safe rendering of a queued item (text truncated). */
function describeItem(item: RoundItem, nationName: (id?: string) => string): string {
const who = item.kind === 'diplomacy' ? ` to ${nationName(item.to)}` : '';
const text = item.text.length > 72 ? `${item.text.slice(0, 71)}…` : item.text;
return `${who ? `${who}:` : 'Action:'} “${text}”`;
}
/**
* The player's command deck ("Your move"). Three tabs — Action (free-text move),
* Diplomacy (a message to a specific nation), Advisor (ask the LLM for ideas,
* "Use" feeds one into the Action tab) — share one prominent Send button that
* routes to the active tab. While a turn resolves it shows a spinner + a hint
* that turns take a few seconds. A "Jump forward" button auto-simulates the
* world with no player move.
* The player's command deck ("Your move"). Three tabs — Action, Diplomacy,
* Advisor — each with a small "Add" button that queues an item onto the pending
* round (these never advance the turn). Below the tabs a visible pending-queue
* list — each row has a small trash button that removes that item (with a
* confirmation dialog) — and one prominent "Jump forward" button that commits
* the whole round in a single LLM turn. While a jump is in flight the commit
* is disabled (as is queue editing) and a hint is shown; an empty jump
* (nothing queued) is allowed and advances time.
*/
export default function ActionPanel({
game,
busy,
advisorBusy,
opBusy,
advisors,
onAction,
onChat,
onAddAction,
onAddDiplomacy,
onRemoveQueueItem,
onAdvisor,
onJump,
onConfirmNationOp,
onRejectNationOp,
inWindow = false,
}: Props) {
const [tab, setTab] = useState('action');
@@ -49,23 +96,29 @@ export default function ActionPanel({
const [target, setTarget] = useState('');
const [message, setMessage] = useState('');
const [prompt, setPrompt] = useState('');
// Index of the queued item the user is about to remove, or null (dialog closed).
const [confirmRemoveIndex, setConfirmRemoveIndex] = useState<number | null>(null);
// Whether the nation-op review dialog is open.
const [opDialogOpen, setOpDialogOpen] = useState(false);
const others = Object.entries(game.nations)
.filter(([id]) => id !== game.playerNationId)
.sort(([a], [b]) => a.localeCompare(b));
const submitAction = () => {
const nationName = (id?: string) => (id ? (game.nations[id]?.name ?? id) : '');
const queueAction = () => {
const text = action.trim();
if (!text || busy) return;
onAddAction(text);
setAction('');
onAction(text);
};
const submitChat = () => {
const queueDiplomacy = () => {
const msg = message.trim();
if (!msg || !target || busy) return;
onAddDiplomacy(target, msg);
setMessage('');
onChat(target, msg);
};
const applyIdea = (idea: string) => {
@@ -73,41 +126,22 @@ export default function ActionPanel({
setTab('action');
};
// The single Send button routes to the active tab.
const sendDisabled =
busy ||
(tab === 'action'
? !action.trim()
: tab === 'diplo'
? !message.trim() || !target
: false);
const sendLabel = busy
const pending = game.pending;
const ops = game.pendingNationOps;
// The item the confirmation dialog is about (re-derived from the live list,
// so if the queue changes while the dialog is open it tracks the current
// item at that index — or the dialog closes if the index went out of range).
const removeTarget = confirmRemoveIndex !== null ? pending[confirmRemoveIndex] : undefined;
const queuedLabel = busy
? 'Simulating…'
: tab === 'action'
? 'Take action'
: tab === 'diplo'
? 'Send message'
: 'Ask the advisor';
: `Jump forward${pending.length > 0 ? ` · ${pending.length} queued` : ''}`;
const send = () => {
if (busy) return;
if (tab === 'action') submitAction();
else if (tab === 'diplo') submitChat();
else onAdvisor(prompt.trim() || undefined);
};
// In window mode the surrounding FloatingWindow shows "Your move" and the
// "Jump forward" button in its own title bar, so omit both here.
const header = inWindow ? null : (
<CardHeader className="flex-row items-center justify-between space-y-0">
<div className="flex items-center gap-2">
<Radar className="size-4 text-primary" />
<CardTitle className="text-base">Your move</CardTitle>
</div>
<Button variant="secondary" size="sm" onClick={onJump} disabled={busy} data-testid="jump-forward">
{busy ? 'Simulating…' : 'Jump forward'}
</Button>
</CardHeader>
);
@@ -134,6 +168,15 @@ export default function ActionPanel({
rows={3}
data-testid="action-textarea"
/>
<Button
variant="secondary"
size="sm"
onClick={queueAction}
disabled={busy || !action.trim()}
data-testid="add-action"
>
Add action
</Button>
</TabsContent>
<TabsContent value="diplo" className="space-y-2">
@@ -156,6 +199,15 @@ export default function ActionPanel({
rows={3}
data-testid="chat-message"
/>
<Button
variant="secondary"
size="sm"
onClick={queueDiplomacy}
disabled={busy || !message.trim() || !target}
data-testid="add-diplomacy"
>
Add to round
</Button>
</TabsContent>
<TabsContent value="advisor" className="space-y-2">
@@ -165,6 +217,27 @@ export default function ActionPanel({
placeholder="Optional focus — e.g. “the nuclear standoff”"
data-testid="advisor-prompt"
/>
<Button
variant="secondary"
size="sm"
onClick={() => onAdvisor(prompt.trim() || undefined)}
disabled={advisorBusy}
data-testid="ask-advisor"
>
{advisorBusy && <Loader2 className="size-3.5 animate-spin" />}
{advisorBusy ? 'Thinking…' : 'Ask advisor'}
</Button>
{/* While the advisor (a separate LLM call) is thinking, mirror the
turn's "sim-hint" so the user knows the request is in flight. */}
{advisorBusy && (
<p
className="flex items-center gap-1.5 text-xs text-muted-foreground"
data-testid="advisor-hint"
>
<span className="sim-pulse inline-block size-1.5 rounded-full bg-primary" />
The advisor is thinking… this can take a few seconds.
</p>
)}
{advisors.length > 0 && (
<ul className="space-y-1.5" data-testid="advisor-list">
{advisors.map((a, i) => (
@@ -184,14 +257,122 @@ export default function ActionPanel({
</TabsContent>
</Tabs>
{/* Pending queue + the prominent commit — always visible, in any mode. */}
<div className="mt-3 space-y-2">
<Button className="h-11 w-full" onClick={send} disabled={sendDisabled} data-testid="action-submit">
{busy ? (
<Loader2 className="size-4 animate-spin" />
<div className="rounded-lg border border-border/60 bg-card/40 p-2.5" data-testid="pending-list">
{pending.length === 0 ? (
<p className="text-xs text-muted-foreground" data-testid="pending-empty">
Nothing queued — add an action or a message, then jump forward.
</p>
) : (
<Send className="size-4" />
<>
<div className="mb-1.5 flex items-center justify-between">
<span className="text-[11px] font-medium uppercase tracking-wide text-muted-foreground">
Queued this round
</span>
<Badge variant="secondary" className="text-[11px] tabular-nums">
{pending.length}
</Badge>
</div>
<ul className="space-y-1">
{pending.map((item, i) => (
<li
key={`${i}-${item.text}`}
className="flex items-center gap-2 text-sm"
data-testid="pending-item"
data-kind={item.kind}
>
{item.kind === 'action' ? (
<Zap className="size-3.5 shrink-0 text-amber-400" aria-hidden />
) : (
<MessageSquare className="size-3.5 shrink-0 text-cyan-400" aria-hidden />
)}
{sendLabel}
{item.kind === 'diplomacy' && (
<span className="shrink-0 text-xs text-muted-foreground">
→ {nationName(item.to)}
</span>
)}
<span className="min-w-0 flex-1 truncate text-foreground/85">{item.text}</span>
<Button
variant="ghost"
size="icon-sm"
className="shrink-0 text-muted-foreground hover:text-destructive"
onClick={() => setConfirmRemoveIndex(i)}
disabled={busy}
title="Remove from this round"
aria-label="Remove this queued item"
data-testid="remove-queue-item"
>
<Trash2 className="size-3.5" />
</Button>
</li>
))}
</ul>
</>
)}
</div>
{/* Confirmation for removing a queued item (never removes without asking). */}
<Dialog open={removeTarget !== undefined} onOpenChange={(open) => !open && setConfirmRemoveIndex(null)}>
<DialogContent className="max-w-sm" data-testid="remove-confirm-dialog">
<DialogHeader>
<DialogTitle>Remove queued item?</DialogTitle>
<DialogDescription>
{removeTarget ? (
<>
{describeItem(removeTarget, nationName)} will be removed from this round and
won’t be simulated on the next jump.
</>
) : null}
</DialogDescription>
</DialogHeader>
<DialogFooter>
<Button variant="outline" onClick={() => setConfirmRemoveIndex(null)} data-testid="remove-cancel">
Cancel
</Button>
<Button
variant="destructive"
onClick={() => {
if (confirmRemoveIndex !== null) onRemoveQueueItem(confirmRemoveIndex);
setConfirmRemoveIndex(null);
}}
data-testid="remove-confirm"
>
<Trash2 className="size-4" />
Remove
</Button>
</DialogFooter>
</DialogContent>
</Dialog>
{/* Pending nation ops proposed by the model — open to confirm or reject. */}
{ops.length > 0 && (
<button
type="button"
onClick={() => setOpDialogOpen(true)}
disabled={busy}
data-testid="nation-op-trigger"
className="flex w-full items-center justify-between gap-2 rounded-lg border border-amber-500/30 bg-amber-500/10 p-2.5 text-sm hover:bg-amber-500/15"
>
<span className="flex items-center gap-2 font-medium text-amber-300">
<PenLine className="size-4" />
{ops.length} nation {ops.length === 1 ? 'proposal' : 'proposals'} — review
</span>
<span className="text-xs text-amber-300/70">confirm or reject</span>
</button>
)}
<NationOpDialog
game={game}
open={opDialogOpen}
onOpenChange={setOpDialogOpen}
opBusy={opBusy}
onConfirm={onConfirmNationOp}
onReject={onRejectNationOp}
/>
<Button className="h-11 w-full" onClick={onJump} disabled={busy} data-testid="jump-forward">
{busy ? <Loader2 className="size-4 animate-spin" /> : <Radar className="size-4" />}
{queuedLabel}
</Button>
{busy && (
<p
+154 -32
View File
@@ -6,7 +6,7 @@ import {
type CSSProperties,
type ReactNode,
} from 'react';
import { Minus, Plus } from 'lucide-react';
import { AlignLeft, AlignRight, Maximize2, Minus, Plus } from 'lucide-react';
import { cn } from '@/lib/utils';
/** Edge anchor used to place a window on first run (before the user drags it). */
@@ -19,6 +19,11 @@ export type FloatAnchor =
| 'bottom-center'
| 'bottom-right';
/** A docked column edge: pinned to a screen edge and filling the viewport height. */
export type FloatDock = 'left' | 'right';
/** A dock mode: a docked edge, or `'float'` (free-floating, the default). */
export type FloatDockMode = FloatDock | 'float';
const STORAGE_PREFIX = 'history.floatwin.v1.';
// Module-level z-index bookkeeping so sibling windows stack in click order:
@@ -26,6 +31,9 @@ const STORAGE_PREFIX = 'history.floatwin.v1.';
// raised, the shared counter advances, so the newest on top always wins.
const Z_BASE = 10;
const Z_STEP = 10;
// A pinned window always floats above every docked/floating window, no matter
// how many times those are raised.
const Z_PINNED = 100000;
let zSeq = 0;
let zTopId: string | null = null;
/** Returns the new z-index to use, or -1 if this window is already front-most. */
@@ -118,8 +126,31 @@ function clampPos(x: number, y: number, w: number, h: number): Pos {
export interface FloatingWindowProps {
/** Stable id — used for the localStorage key and as a data-attribute. */
id: string;
/** First-run placement. The last dragged position (persisted) takes over. */
anchor: FloatAnchor;
/** Optional `data-testid` on the window root, for e2e targeting. */
dataTestId?: string;
/**
* First-run placement for a free-floating window; the last dragged position
* (persisted) takes over. Ignored when `pinned` or `dock` is set.
*/
anchor?: FloatAnchor;
/**
* Pin the window to the top-center of the viewport: a fixed, non-movable bar
* a few px from the top that re-centers automatically on resize, always
* floats above docked/floating panels, and never reads/writes a persisted
* position. Used for the slim header.
*/
pinned?: boolean;
/**
* Dock the window into a full-height left or right column: non-movable,
* body scrolls, never reads/writes the persisted free-floating position.
* Absent (`undefined`) = free-floating as before.
*/
dock?: FloatDock;
/**
* When provided, render dock controls (left / right / float) in the title bar
* and report the chosen mode back to the parent, which persists it.
*/
onDockChange?: (mode: FloatDockMode) => void;
/** Fixed window width in px (content is sized to it). Omit to fit content. */
width?: number;
/** Extra px nudged away from the anchor position (e.g. clear the map attribution). */
@@ -128,7 +159,7 @@ export interface FloatingWindowProps {
title?: ReactNode;
/** Optional icon before the title. */
titleIcon?: ReactNode;
/** Right-side title-bar content, rendered before the collapse button. */
/** Right-side title-bar content, rendered before the dock/collapse controls. */
titleExtra?: ReactNode;
/** Render the collapse toggle (default true). */
collapsible?: boolean;
@@ -143,16 +174,27 @@ export interface FloatingWindowProps {
}
/**
* A draggable, collapsible, position-persisted window that floats over the
* full-screen map. Dragging is limited to the title bar (via pointer capture)
* so inputs and buttons in the body keep working; the window is clamped so it
* can never be dragged fully off-screen, its position is remembered in
* localStorage, clicking any part of it raises it above siblings, and the
* collapse toggle shrinks it to just its title bar.
* A window that floats over the full-screen map. Three mutually-exclusive
* modes, set via props (absent = free-floating):
* • **free-floating** (default) — draggable by the title bar (pointer
* capture), clamped on-screen, position persisted in localStorage, raised
* above siblings on click, collapsible.
* • **pinned** — a fixed, non-movable bar centered at the top of the
* viewport a few px down; re-centers on resize; always above other
* windows; no position persisted.
* • **docked** (`left`/`right`) — a non-movable, full-height column pinned
* to a screen edge whose body scrolls; the persisted free-floating
* position is neither read nor written while docked.
* When `onDockChange` is provided, small dock/left/right/float controls render
* in the title bar and report the chosen mode back to the parent.
*/
export default function FloatingWindow({
id,
anchor,
dataTestId,
anchor = 'top-center',
pinned = false,
dock,
onDockChange,
width,
offset,
title,
@@ -165,6 +207,12 @@ export default function FloatingWindow({
bodyClassName,
children,
}: FloatingWindowProps) {
const isPinned = pinned;
const isDocked = dock === 'left' || dock === 'right';
// Free-floating is the only mode that drags, persists a position, and needs
// viewport measurement/clamping. Pinned and docked are CSS-positioned.
const isFloating = !isPinned && !isDocked;
const rootRef = useRef<HTMLDivElement>(null);
const sizeRef = useRef<{ w: number; h: number } | null>(null);
const dragRef = useRef<{ dx: number; dy: number; pointerId: number } | null>(null);
@@ -177,9 +225,11 @@ export default function FloatingWindow({
setPosState(p);
};
// First paint: measure, then place (restored position or anchor) and clamp.
// Runs before paint (useLayoutEffect), so there is no visible flash.
// First paint (free-floating only): measure, then place (restored position
// or anchor) and clamp. Runs before paint (useLayoutEffect), so no flash.
// Re-runs when the mode changes so a window returning from docked re-places.
useLayoutEffect(() => {
if (!isFloating) return;
if (posRef.current) return;
const el = rootRef.current;
if (!el) return;
@@ -195,11 +245,12 @@ export default function FloatingWindow({
);
posRef.current = p;
setPosState(p);
}, [id, anchor]);
}, [id, anchor, offset, isFloating]);
// Re-measure + re-clamp whenever the body toggles hidden (expand can push a
// bottom-anchored window off the bottom edge).
// bottom-anchored window off the bottom edge). Free-floating only.
useLayoutEffect(() => {
if (!isFloating) return;
const el = rootRef.current;
const p = posRef.current;
if (!el || !p) return;
@@ -208,10 +259,11 @@ export default function FloatingWindow({
sizeRef.current = { w: rect.width, h: rect.height };
const c = clampPos(p.x, p.y, rect.width, rect.height);
if (c.x !== p.x || c.y !== p.y) setPos(c);
}, [collapsed]);
}, [collapsed, isFloating]);
// Keep the window on-screen when the viewport shrinks.
// Keep a free-floating window on-screen when the viewport shrinks.
useEffect(() => {
if (!isFloating) return;
const onResize = () => {
const p = posRef.current;
const s = sizeRef.current;
@@ -221,7 +273,7 @@ export default function FloatingWindow({
};
window.addEventListener('resize', onResize);
return () => window.removeEventListener('resize', onResize);
}, []);
}, [isFloating]);
const onHandleDown = (e: React.PointerEvent<HTMLDivElement>) => {
if (e.button !== 0) return;
@@ -258,18 +310,44 @@ export default function FloatingWindow({
if (p) savePos(id, p.x, p.y);
};
const style: CSSProperties = {
// Root placement: pinned → centered top bar; docked → full-height edge
// column; free-floating → last/initial pixel position (hidden until measured).
const rootStyle: CSSProperties = isPinned
? { zIndex: Z_PINNED, top: 8, left: '50%', transform: 'translateX(-50%)' }
: isDocked
? {
zIndex: z,
...(pos ? { left: pos.x, top: pos.y } : {}),
};
top: 0,
height: '100vh',
...(dock === 'left' ? { left: 0 } : { right: 0 }),
}
: { zIndex: z, ...(pos ? { left: pos.x, top: pos.y } : {}) };
// The title bar is the drag handle only in free-floating mode.
const titleBarHandlers = isFloating
? {
onPointerDown: onHandleDown,
onPointerMove: onHandleMove,
onPointerUp: endDrag,
onPointerCancel: endDrag,
}
: {};
// Docked: the body fills the remaining column height and scrolls, overriding
// any max-height the caller set for the floating layout.
const bodyClass = isDocked
? cn('min-h-0 flex-1 overflow-y-auto', collapsed && 'hidden')
: cn('min-h-0', collapsed && 'hidden', bodyClassName);
return (
<div
ref={rootRef}
data-float-window={id}
style={style}
className={cn('fixed', !pos && 'pointer-events-none opacity-0')}
data-testid={dataTestId}
style={rootStyle}
className={cn('fixed', isFloating && !pos && 'pointer-events-none opacity-0')}
onPointerDown={() => {
if (isPinned) return;
const nz = nextZ(id);
if (nz > 0) setZ(nz);
}}
@@ -277,21 +355,24 @@ export default function FloatingWindow({
<div
className={cn(
'overflow-hidden rounded-xl border border-border/70 bg-slate-900/80 shadow-2xl shadow-black/50 backdrop-blur-md',
isDocked && 'flex h-full flex-col',
className,
)}
style={
width != null
isDocked
? { width: width ?? 'fit-content', maxWidth: '96vw' }
: width != null
? { width, maxWidth: '96vw' }
: { width: 'fit-content', maxWidth: '96vw' }
}
>
{title != null && (
<div
className="flex cursor-grab touch-none select-none items-center gap-2 border-b border-border/60 bg-white/[0.03] px-2.5 py-1.5 active:cursor-grabbing"
onPointerDown={onHandleDown}
onPointerMove={onHandleMove}
onPointerUp={endDrag}
onPointerCancel={endDrag}
className={cn(
'flex shrink-0 touch-none select-none items-center gap-2 border-b border-border/60 bg-white/[0.03] px-2.5 py-1.5',
isFloating && 'cursor-grab active:cursor-grabbing',
)}
{...titleBarHandlers}
>
{titleIcon && (
<span className="shrink-0 text-muted-foreground" aria-hidden>
@@ -302,6 +383,49 @@ export default function FloatingWindow({
{title}
</span>
{titleExtra}
{onDockChange && (
<span className="flex shrink-0 items-center gap-0.5" data-no-drag>
<button
type="button"
data-testid="dock-left"
aria-label="Dock to the left edge"
title="Dock to the left edge"
className={cn(
'rounded-md p-1 text-muted-foreground transition-colors hover:bg-white/10 hover:text-foreground',
dock === 'left' && 'bg-white/10 text-foreground',
)}
onClick={() => onDockChange('left')}
>
<AlignLeft className="size-3.5" />
</button>
<button
type="button"
data-testid="dock-right"
aria-label="Dock to the right edge"
title="Dock to the right edge"
className={cn(
'rounded-md p-1 text-muted-foreground transition-colors hover:bg-white/10 hover:text-foreground',
dock === 'right' && 'bg-white/10 text-foreground',
)}
onClick={() => onDockChange('right')}
>
<AlignRight className="size-3.5" />
</button>
<button
type="button"
data-testid="dock-float"
aria-label="Float the window"
title="Float (undock)"
className={cn(
'rounded-md p-1 text-muted-foreground transition-colors hover:bg-white/10 hover:text-foreground',
!isDocked && 'bg-white/10 text-foreground',
)}
onClick={() => onDockChange('float')}
>
<Maximize2 className="size-3.5" />
</button>
</span>
)}
{collapsibleProp && (
<button
type="button"
@@ -315,9 +439,7 @@ export default function FloatingWindow({
)}
</div>
)}
{children != null && (
<div className={cn('min-h-0', collapsed && 'hidden', bodyClassName)}>{children}</div>
)}
{children != null && <div className={bodyClass}>{children}</div>}
</div>
</div>
);
+307
View File
@@ -0,0 +1,307 @@
import { useState } from 'react';
import { Check, Loader2, PenLine, X } from 'lucide-react';
import { Button } from './ui/button';
import {
Dialog,
DialogContent,
DialogDescription,
DialogHeader,
DialogTitle,
} from './ui/dialog';
import { Input } from './ui/input';
import { Badge } from './ui/badge';
import type { GameState } from '@shared/types';
import type { NationOp, RenameOp } from '@shared/protocol';
interface Props {
game: GameState;
open: boolean;
onOpenChange: (open: boolean) => void;
/** A confirm/reject request is in flight — disable the per-op controls. */
opBusy: boolean;
/**
* Apply a pending op: `edits.name` overrides a rename's target name (or the
* merged name for a merge); `edits.playerPart` picks which new part the
* player's nation becomes in a split (default 0).
*/
onConfirm: (index: number, edits?: { name?: string; playerPart?: number }) => void;
/** Drop a pending op (reject / dismiss). */
onReject: (index: number) => void;
}
/** A short, display-safe description of a pending nation op. */
function describeOp(op: NationOp, name: (ref: string) => string): string {
if (op.kind === 'rename') return `Rename ${name(op.nationRef)} to “${op.to}”`;
if (op.kind === 'split')
return `Split ${name(op.nationRef)} into ${op.parts.length} nations (${op.parts
.map((p) => p.name)
.join(', ')})`;
return `Merge ${op.nationRefs.map(name).join(' + ')} into “${op.into}”`;
}
/**
* Reviews the nation ops the LLM has proposed (stored in `pendingNationOps`)
* and lets the player apply ("LLM proposes, player confirms") or drop each one:
* a rename shows the proposed name in an editable field; a split lists the
* proposed parts (with the number of regions each is assigned) and, when the
* split parent is the player's own nation, radio buttons to pick which new
* part the player leads; a merge shows the input nations (the survivor
* highlighted) and an editable name for the merged state (default `into`).
*/
export default function NationOpDialog({
game,
open,
onOpenChange,
opBusy,
onConfirm,
onReject,
}: Props) {
const ops = game.pendingNationOps;
const name = (ref: string) => game.nations[ref]?.name ?? ref;
// Resolve a nation ref the way the server does (id first, then a unique
// case-insensitive name; null when unknown/ambiguous) — UI hints only, the
// server stays authoritative.
const resolveRef = (ref: string): string | null => {
const r = (ref ?? '').trim();
if (!r) return null;
if (game.nations[r]) return r;
const matches = Object.values(game.nations).filter(
(n) => n.name.trim().toLowerCase() === r.toLowerCase(),
);
return matches.length === 1 ? matches[0].id : null;
};
// The player's edits, keyed by pending-op index: the rename/merge target
// name (an unset entry means "use the model's proposed name"), and which
// split part the player succeeds to (preselected 0 — the radio is
// "required" and always has a valid answer).
const [edits, setEdits] = useState<Record<number, string>>({});
const [playerParts, setPlayerParts] = useState<Record<number, number>>({});
return (
<Dialog open={open} onOpenChange={onOpenChange}>
<DialogContent className="max-w-lg" data-testid="nation-op-dialog">
<DialogHeader>
<DialogTitle>
<span className="flex items-center gap-2">
<PenLine className="size-4 text-primary" />
Nation proposals
</span>
</DialogTitle>
<DialogDescription>
The model proposed changes to nations. Confirm to apply them (you can edit a
name and choose your successor state in a split) or reject to leave the world
as it is.
</DialogDescription>
</DialogHeader>
{ops.length === 0 ? (
<p className="py-2 text-sm text-muted-foreground" data-testid="nation-op-empty">
Nothing pending — the model hasn’t proposed any nation changes.
</p>
) : (
<ul className="max-h-[50vh] space-y-2.5 overflow-y-auto pr-1" data-testid="nation-op-list">
{ops.map((op, i) => {
const isRename = op.kind === 'rename';
const isSplit = op.kind === 'split';
const isMerge = op.kind === 'merge';
const finalName = isRename ? (edits[i] ?? (op as RenameOp).to).trim() : '';
// Split: is the parent the player's own nation? (the successor radio
// is offered only in that case — the engine ignores playerPart otherwise)
const splitParentIsPlayer =
isSplit && resolveRef((op as { nationRef: string }).nationRef) === game.playerNationId;
const playerPart = playerParts[i] ?? 0;
// Merge: the survivor (highlighted) and whether the proposal is
// even valid (2+ distinct inputs; the survivor among them).
const survivorId = isMerge ? resolveRef((op as { survivingRef: string }).survivingRef) : null;
const inputIds = isMerge
? new Set(
(op as { nationRefs: string[] }).nationRefs
.map(resolveRef)
.filter((x): x is string => x !== null),
)
: new Set<string>();
const mergeValid =
!isMerge || (inputIds.size >= 2 && (survivorId !== null && inputIds.has(survivorId)));
const mergeName = isMerge ? (edits[i] ?? (op as { into: string }).into).trim() : '';
const confirm = () => {
if (isRename) onConfirm(i, finalName ? { name: finalName } : undefined);
else if (isMerge) onConfirm(i, mergeName ? { name: mergeName } : undefined);
else onConfirm(i, splitParentIsPlayer ? { playerPart } : undefined);
};
return (
<li
key={`${i}-${op.kind}`}
className="rounded-lg border border-border/70 bg-card/50 p-3"
data-testid="nation-op-item"
data-kind={op.kind}
>
<div className="mb-2 flex items-start gap-2">
<Badge variant="secondary" className="shrink-0 text-[11px] capitalize">
{op.kind}
</Badge>
<span className="min-w-0 flex-1 text-sm leading-snug">
{describeOp(op, name)}
</span>
</div>
{isRename ? (
<div className="space-y-2.5">
<Input
value={edits[i] ?? (op as RenameOp).to}
onChange={(e) => setEdits((p) => ({ ...p, [i]: e.target.value }))}
placeholder="New name…"
data-testid="nation-op-name-input"
/>
<div className="flex justify-end gap-2">
<Button
variant="ghost"
size="sm"
onClick={() => onReject(i)}
disabled={opBusy}
className="text-muted-foreground hover:text-destructive"
data-testid="nation-op-reject"
>
<X className="size-3.5" />
Reject
</Button>
<Button
size="sm"
onClick={confirm}
disabled={opBusy}
data-testid="nation-op-confirm"
>
{opBusy ? <Loader2 className="size-3.5 animate-spin" /> : <Check className="size-3.5" />}
Confirm
</Button>
</div>
</div>
) : isSplit ? (
<div className="space-y-2.5">
<div className="space-y-1">
{(op as { parts: { name: string; territory?: string[] }[] }).parts.map((p, pi) => (
<div
key={pi}
className="flex items-center gap-2 text-sm"
data-testid="nation-op-part"
data-part={pi}
>
{splitParentIsPlayer ? (
<input
type="radio"
name={`player-part-${i}`}
checked={playerPart === pi}
onChange={() => setPlayerParts((prev) => ({ ...prev, [i]: pi }))}
disabled={opBusy}
className="size-3.5 shrink-0 accent-amber-400"
aria-label={`Make ${p.name} the player's successor state`}
data-testid="nation-op-player-part"
/>
) : (
<span className="size-3.5 shrink-0" aria-hidden />
)}
<span className="min-w-0 flex-1 truncate">{p.name}</span>
<span className="shrink-0 text-[11px] tabular-nums text-muted-foreground">
{p.territory?.length ?? 0} region{(p.territory?.length ?? 0) === 1 ? '' : 's'}
</span>
</div>
))}
</div>
{splitParentIsPlayer && (
<p className="text-[11px] text-muted-foreground" data-testid="nation-op-split-hint">
Choose which new state you will lead after the split.
</p>
)}
{(op as { parts: unknown[] }).parts.length < 2 && (
<p className="text-[11px] text-muted-foreground">
This split names fewer than two parts — confirming will dismiss it
without changing the world.
</p>
)}
<div className="flex justify-end gap-2">
<Button
variant="ghost"
size="sm"
onClick={() => onReject(i)}
disabled={opBusy}
className="text-muted-foreground hover:text-destructive"
data-testid="nation-op-reject"
>
<X className="size-3.5" />
Reject
</Button>
<Button
size="sm"
onClick={confirm}
disabled={opBusy}
data-testid="nation-op-confirm"
>
{opBusy ? <Loader2 className="size-3.5 animate-spin" /> : <Check className="size-3.5" />}
Confirm
</Button>
</div>
</div>
) : (
<div className="space-y-2.5">
<div className="flex flex-wrap gap-1.5">
{(op as { nationRefs: string[] }).nationRefs.map((ref, ri) => {
const isSurvivor = resolveRef(ref) === survivorId;
return (
<Badge
key={ri}
variant={isSurvivor ? 'default' : 'secondary'}
className="text-[11px]"
data-testid="nation-op-input"
>
{name(ref)}
{isSurvivor ? ' (survivor)' : ''}
</Badge>
);
})}
</div>
<Input
value={edits[i] ?? (op as { into: string }).into}
onChange={(e) => setEdits((p) => ({ ...p, [i]: e.target.value }))}
placeholder="New name…"
data-testid="nation-op-name-input"
/>
{!mergeValid && (
<p className="text-[11px] text-muted-foreground">
This merge is not valid as proposed — confirming will dismiss it
without changing the world.
</p>
)}
<div className="flex justify-end gap-2">
<Button
variant="ghost"
size="sm"
onClick={() => onReject(i)}
disabled={opBusy}
className="text-muted-foreground hover:text-destructive"
data-testid="nation-op-reject"
>
<X className="size-3.5" />
Reject
</Button>
<Button
size="sm"
onClick={confirm}
disabled={opBusy}
data-testid="nation-op-confirm"
>
{opBusy ? <Loader2 className="size-3.5 animate-spin" /> : <Check className="size-3.5" />}
Confirm
</Button>
</div>
</div>
)}
</li>
);
})}
</ul>
)}
</DialogContent>
</Dialog>
);
}
+29 -5
View File
@@ -1,8 +1,10 @@
import { useEffect, useState } from 'react';
import { Badge } from './ui/badge';
import { Card, CardContent, CardDescription, CardHeader, CardTitle } from './ui/card';
import StatBar from './StatBar';
import { nationColor } from '@shared/protocol';
import { RELATION_COLORS } from '@/lib/colors';
import { keyToName } from '@/lib/regions';
import type { Nation, RelationStatus } from '@shared/types';
/** Human labels for a diplomatic status (the raw value is kept in data-attrs). */
@@ -38,6 +40,23 @@ export default function NationPanel({ nation, nations, isPlayer, inWindow = fals
const relations = Object.entries(nation.relations).sort(([a], [b]) => a.localeCompare(b));
const regions = nation.territory;
// Human region names for the territory chips (region key -> name), loaded once
// (cached in @/lib/regions). A key with no known name falls back to the raw key.
const [keyNames, setKeyNames] = useState<Record<string, string>>({});
useEffect(() => {
let cancelled = false;
keyToName()
.then((m) => {
if (!cancelled) setKeyNames(m);
})
.catch(() => {
/* names are cosmetic — a failed fetch just leaves the raw keys */
});
return () => {
cancelled = true;
};
}, []);
const identity = (
<div className="flex items-center gap-3">
<span
@@ -95,15 +114,20 @@ export default function NationPanel({ nation, nations, isPlayer, inWindow = fals
</h3>
{regions.length > 0 ? (
<div className="flex flex-wrap gap-1.5">
{regions.map((code) => (
{regions.map((key) => {
const label = keyNames[key] ?? key;
return (
<span
key={code}
className="rounded border px-1.5 py-0.5 text-xs tabular-nums"
key={key}
className="rounded border px-1.5 py-0.5 text-xs"
style={{ borderColor: `${color}66`, color, background: `${color}12` }}
title={key}
data-region-key={key}
>
{code}
{label}
</span>
))}
);
})}
</div>
) : (
<p className="text-sm text-muted-foreground">No territory.</p>
+70 -4
View File
@@ -1,7 +1,16 @@
import { Play } from 'lucide-react';
import { useState } from 'react';
import { Play, Trash2 } from 'lucide-react';
import { Badge } from './ui/badge';
import { Button } from './ui/button';
import { Card, CardContent, CardDescription, CardHeader, CardTitle } from './ui/card';
import {
Dialog,
DialogContent,
DialogDescription,
DialogFooter,
DialogHeader,
DialogTitle,
} from './ui/dialog';
import type { PresetMeta } from '@shared/types';
import type { GameSummary } from '@shared/protocol';
@@ -15,12 +24,14 @@ interface Props {
activeGameId?: string | null;
/** Resume a saved game by id (shared by the resume button and saved-games rows). */
onResume?: (id: string) => void;
/** Delete a saved game by id (confirmed by a dialog in this component). */
onDelete?: (id: string) => void;
}
/**
* Home screen: a grid of scenario cards (each with a Play button), a prominent
* "Resume last game" affordance, and a "Saved games" section listing prior
* games so the user can get back into one.
* games so the user can get back into one — or delete it.
*/
export default function PresetPicker({
presets,
@@ -29,8 +40,14 @@ export default function PresetPicker({
savedGames = [],
activeGameId,
onResume,
onDelete,
}: Props) {
const activeGame = activeGameId ? savedGames.find((g) => g.id === activeGameId) : undefined;
// The game awaiting a delete confirmation (null = dialog closed).
const [confirmDeleteId, setConfirmDeleteId] = useState<string | null>(null);
const confirmDeleteTarget = confirmDeleteId
? savedGames.find((g) => g.id === confirmDeleteId)
: undefined;
return (
<div className="mx-auto max-w-6xl px-6 py-10">
@@ -90,7 +107,7 @@ export default function PresetPicker({
))}
</div>
{/* Saved games: get back into any prior game. */}
{/* Saved games: get back into any prior game (or delete it). */}
{savedGames.length > 0 && (
<section className="mt-12" data-testid="saved-games">
<h2 className="mb-4 text-xl font-bold tracking-tight">Saved games</h2>
@@ -100,13 +117,28 @@ export default function PresetPicker({
key={g.id}
className="flex flex-col"
data-testid="saved-game"
data-game-id={g.id}
>
<CardHeader>
<div className="flex items-start justify-between gap-2">
<CardTitle className="text-base">{g.presetTitle}</CardTitle>
<Badge variant="secondary" className="shrink-0 text-xs">
<div className="flex shrink-0 items-center gap-1">
<Badge variant="secondary" className="text-xs">
{g.date}
</Badge>
<Button
variant="ghost"
size="icon-sm"
className="text-muted-foreground hover:text-destructive"
data-testid="delete-game"
aria-label={`Delete ${g.presetTitle}`}
title="Delete this game"
onClick={() => setConfirmDeleteId(g.id)}
disabled={loading}
>
<Trash2 />
</Button>
</div>
</div>
<CardDescription className="text-sm">Turn {g.turn}</CardDescription>
</CardHeader>
@@ -125,6 +157,40 @@ export default function PresetPicker({
</div>
</section>
)}
{/* Confirm before permanently deleting a saved game. */}
<Dialog open={confirmDeleteId !== null} onOpenChange={(o) => !o && setConfirmDeleteId(null)}>
<DialogContent className="max-w-sm" data-testid="delete-game-confirm-dialog">
<DialogHeader>
<DialogTitle>Delete this game?</DialogTitle>
<DialogDescription>
{confirmDeleteTarget
? `"${confirmDeleteTarget.presetTitle}" (turn ${confirmDeleteTarget.turn}, ${confirmDeleteTarget.date}) will be permanently removed. This cannot be undone.`
: 'This game will be permanently removed.'}
</DialogDescription>
</DialogHeader>
<DialogFooter>
<Button
variant="outline"
data-testid="delete-game-cancel"
onClick={() => setConfirmDeleteId(null)}
>
Cancel
</Button>
<Button
variant="destructive"
data-testid="delete-game-confirm"
onClick={() => {
const id = confirmDeleteId;
setConfirmDeleteId(null);
if (id) onDelete?.(id);
}}
>
Delete
</Button>
</DialogFooter>
</DialogContent>
</Dialog>
</div>
);
}
+258 -128
View File
@@ -8,11 +8,21 @@ import 'maplibre-gl/dist/maplibre-gl.css';
// Point it at a Vite-emitted copy of the worker module so it loads in prod.
import workerUrl from 'maplibre-gl/dist/maplibre-gl-worker.mjs?url';
maplibregl.setWorkerUrl(workerUrl);
import type { RegionMap, RegionOwner } from '@shared/protocol';
import {
mapFeatureOwner,
regionFillStyle,
unownedTooltipLabel,
type RegionMap,
type RegionOwner,
} from '@shared/protocol';
import type { Nation } from '@shared/types';
import { cn } from '@/lib/utils';
import { idToKey } from '@/lib/regions';
// Minimal GeoJSON types (avoids a hard @types/geojson dependency).
// Minimal GeoJSON types (avoids a hard @types/geojson dependency). The choropleth
// source is the sub-national `regions.geo.json`: each feature is a sub-region with
// a top-level `id` of the form `<ISO_A3>-<nn>` (e.g. `FRA-03`) and
// `properties = { name, parent }` where `parent` is the parent country's ISO_A3.
interface GeoFeature {
type: 'Feature';
id?: string | number;
@@ -27,7 +37,7 @@ type GeoSource = maplibregl.GeoJSONSource;
// Inline basemap style — a visible dark-navy background plus a subtle
// OpenFreeMap shaded-relief raster so the ocean is never pure black and terrain
// is faintly visible. The country choropleth (added in `ensureLayers`) is drawn
// is faintly visible. The regional choropleth (added in `ensureLayers`) is drawn
// on top and is the real star.
//
// Why inline instead of a remote style URL: the OFM "dark" style's vector tiles
@@ -61,7 +71,7 @@ const INLINE_STYLE: maplibregl.StyleSpecification = {
type: 'raster',
source: 'terrain',
paint: {
'raster-opacity': 0.5,
'raster-opacity': 0.15,
'raster-brightness-max': 0.8,
'raster-fade-duration': 200,
},
@@ -69,11 +79,11 @@ const INLINE_STYLE: maplibregl.StyleSpecification = {
],
};
const COUNTRIES_SOURCE = 'countries';
const REGIONS_SOURCE = 'regions';
const HOVER_SOURCE = 'hover';
const FLASH_SOURCE = 'flash';
const FILL_LAYER = 'countries-fill';
const LINE_LAYER = 'countries-line';
const FILL_LAYER = 'regions-fill';
const LINE_LAYER = 'regions-line';
const PLAYER_LINE = 'player-line';
const FLASH_LINE = 'flash-line';
const HOVER_FILL = 'hover-fill';
@@ -97,35 +107,91 @@ function cameraForPreset(presetId: string): { center: [number, number]; zoom: nu
}
/**
* Stamp the current ownership + colors onto a clone of the base geo. Each region
* carries its owner's stable fill color, a subtle stroke, and a flag for the
* player's own regions (rendered as a brighter, thicker border by a dedicated
* layer). Unknown owners fall back to a faint neutral fill — never an error.
* Stamp the current ownership + colors onto a clone of the sub-national base geo.
* Ownership is at **region-key** granularity (v0.19, #16 P1): each sub-region has
* its own region key (from `public/region-keys.json`, looked up by the feature's
* stable id) and the RegionMap is keyed by that region key, so a single
* sub-region can change owner while its neighbours keep theirs. Each feature
* therefore carries:
*
* - `regionId` – its own sub-region id (e.g. `FRA-03`), kept in a property that
* survives into the features MapLibre hands back on click/hover
* (the top-level `id` is repacked into a numeric index, #6);
* - `regionKey` – the region key (e.g. `moselle-rygy`), the RegionMap key;
* - `fill` – the owning nation's stable color (from `RegionMap[regionKey]`);
* - `owner`/`ownerId` – that nation's name/id (empty for an unowned region);
* - `stroke` – a per-border alpha (owned brightest, no man's land next,
* plain-unowned faintest);
* - `isPlayer` – 1 when the owning nation is the player (drives the amber
* player-highlight border).
*
* Crucially, the owner lookup keys the RegionMap by the stamped
* `properties.regionKey`, **never** by the sub-region id or the repacked
* top-level `id` — the RegionMap has no `FRA-03` entries, only region keys.
*
* (v0.22, #16 P3) Unowned regions have two looks, decided here (the
* RegionMap simply has no entry for them): a key in `unownedSet` — released to
* no man's land mid-game (`GameState.unowned`) — gets the distinct visible grey
* (`NO_MANS_LAND_FILL`); every other ownerless region keeps the faint
* preset-unassigned look. Both come from the shared `regionFillStyle` contract.
*/
function applyRegions(geo: FeatureCollection, regions: RegionMap, playerNationId: string): FeatureCollection {
function applyRegions(
geo: FeatureCollection,
regions: RegionMap,
playerNationId: string,
idKey: Record<string, string>,
unownedSet: ReadonlySet<string>,
): FeatureCollection {
const out: FeatureCollection = JSON.parse(JSON.stringify(geo));
for (const f of out.features) {
f.properties = f.properties ?? {};
const r = f.id ? regions[f.id as string] : undefined;
// The sub-region's own id (e.g. `FRA-03`) — stamped into a property that
// survives into the rendered features (the top-level `id` gets repacked).
const subId = f.id == null ? '' : String(f.id);
f.properties.regionId = subId;
// Resolve this feature's **region key** from the manifest (id -> key) and
// key the RegionMap by it — never the sub-region id or the repacked id.
const key = idKey[subId] ?? '';
f.properties.regionKey = key;
const r = key ? regions[key] : undefined;
if (r) {
f.properties.fill = r.color;
const style = regionFillStyle(r, false);
f.properties.fill = style.fill;
f.properties.stroke = style.stroke;
f.properties.owner = r.owner;
f.properties.stroke = 'rgba(255,255,255,0.10)';
f.properties.ownerId = r.ownerId;
f.properties.isPlayer = r.ownerId === playerNationId ? 1 : 0;
} else {
f.properties.fill = 'rgba(148,163,184,0.05)';
f.properties.stroke = 'rgba(255,255,255,0.06)';
// Ownerless: visible grey only for keys released mid-game (no man's
// land); a preset that never assigned this sub-region stays faint.
const style = regionFillStyle(undefined, key !== '' && unownedSet.has(key));
f.properties.fill = style.fill;
f.properties.stroke = style.stroke;
f.properties.owner = '';
f.properties.ownerId = '';
f.properties.isPlayer = 0;
}
}
return out;
}
/** Build a FeatureCollection of just the features whose id is in `codes` (cloned). */
function featuresByCodes(geo: FeatureCollection, codes: Iterable<string>): FeatureCollection {
const set = new Set(codes);
const features = geo.features.filter((f) => f.id != null && set.has(String(f.id)));
/**
* Build a FeatureCollection of just the sub-regions whose **region key** is in
* `keys` (cloned). Used by the territory-change flash: a turn can change
* individual sub-regions (the RegionMap is region-keyed, v0.19 #16 P1), so each
* changed region key lights up exactly the sub-region that owns it.
*/
function featuresByRegionKeys(
geo: FeatureCollection,
keys: Iterable<string>,
idKey: Record<string, string>,
): FeatureCollection {
const set = new Set(keys);
const features = geo.features.filter((f) => {
const id = f.id == null ? '' : String(f.id);
const key = idKey[id] ?? '';
return key !== '' && set.has(key);
});
return { type: 'FeatureCollection', features: JSON.parse(JSON.stringify(features)) };
}
@@ -137,72 +203,91 @@ function statRow(label: string, value?: number): string {
return `<div class="hm-stat"><span class="hm-stat-k">${label}</span><span class="hm-stat-v">${Math.round(value)}</span></div>`;
}
/** Compact hover tooltip: country, its owner (color-chipped), and 1–2 key stats. */
function hoverHtml(countryName: string, region?: RegionOwner, nation?: Nation): string {
/**
* Compact hover tooltip: the sub-region's name, its **current owner**
* (color-chipped), and 1–2 key stats. When the region's country has no owning
* nation, a minimal card is shown instead; its sub-line says "No man's land"
* for a region released mid-game (v0.22, #16 P3) and "No owner" for a region
* no preset ever assigned. The static parent-country code
* (`properties.parent`) is deliberately NOT printed here — it never updates
* when ownership is transferred, so only the live owner chip (resolved from
* the RegionMap) is shown.
*/
function hoverHtml(
subRegionName: string,
region?: RegionOwner,
nation?: Nation,
noMansLand = false,
): string {
if (!region || !nation) {
return `<div class="hm-popup"><div class="hm-popup-title">${esc(countryName || 'Unclaimed')}</div><div class="hm-popup-sub">No owner</div></div>`;
return `<div class="hm-popup"><div class="hm-popup-title">${esc(subRegionName || 'Unclaimed')}</div><div class="hm-popup-sub">${unownedTooltipLabel(noMansLand)}</div></div>`;
}
const stats = [statRow('Mil', nation.stats.military), statRow('Eco', nation.stats.economy)].join('');
return `<div class="hm-popup">
<div class="hm-popup-title">${esc(countryName || region.owner)}</div>
<div class="hm-popup-title">${esc(subRegionName || region.owner)}</div>
<div class="hm-popup-owner"><span class="hm-chip" style="background:${region.color}"></span>${esc(region.owner)}</div>
<div class="hm-stats">${stats}</div>
</div>`;
}
/** Click popup: the full owning-nation profile with all four stats. */
function clickHtml(countryName: string, region?: RegionOwner, nation?: Nation): string {
if (!region || !nation) {
return `<div class="hm-popup"><div class="hm-popup-title">${esc(countryName || 'Unclaimed')}</div><div class="hm-popup-sub">No owner</div></div>`;
}
const stats = [
statRow('Mil', nation.stats.military),
statRow('Eco', nation.stats.economy),
statRow('Stab', nation.stats.stability),
statRow('Pop', nation.stats.population),
].join('');
const regions = nation.territory.length;
return `<div class="hm-popup">
<div class="hm-popup-title">${esc(countryName || region.owner)}</div>
<div class="hm-popup-owner hm-popup-owner-big"><span class="hm-chip" style="background:${region.color}"></span>${esc(region.owner)}</div>
<div class="hm-popup-sub">${regions} region${regions === 1 ? '' : 's'} · click focuses the dossier</div>
<div class="hm-stats">${stats}</div>
</div>`;
}
/** Minimal map API exposed to the floating zoom control (and any other UI). */
export interface MapApi {
zoomIn: () => void;
zoomOut: () => void;
reset: () => void;
}
interface Props {
regions: RegionMap;
playerNationId: string;
/** All nations, for hover/click stats and color chips. */
/** All nations, for the hover tooltip's owner stats and color chips. */
nations: Record<string, Nation>;
/** The active scenario id, for a sensible initial camera. */
presetId: string;
className?: string;
/** Called when a region is clicked, so the dossier can focus its owner. */
onFocusNation?: (id: string) => void;
/**
* Called with a minimal zoom/pan API once the map is ready (and with `null`
* on unmount), so the floating zoom control can drive it.
* (v0.22, #16 P3) Region keys currently in no man's land (released
* mid-game — `GameState.unowned`). Such regions render the distinct visible
* grey (vs the faint preset-unassigned look of every other ownerless
* region) and their hover tooltip says "No man's land" instead of "No
* owner".
*/
onMapReady?: (api: MapApi | null) => void;
unowned?: string[];
/**
* Called with a region's owning-nation id when a sub-region is clicked, so the
* dossier switches to that nation. The optional `info` carries the clicked
* sub-region's name, for a small "which region" label in the dossier. Not
* called for unowned regions (the dossier keeps its current target). See the
* component doc for the full behavior.
*/
onFocusNation?: (id: string, info?: { name?: string }) => void;
}
/**
* World basemap (MapLibre GL) + a country choropleth colored by the owning
* nation. Rendered as a fixed, full-viewport background layer (z-0) behind the
* floating HUD windows: a dark-navy basemap with subtle terrain, per-nation
* stable fills (the choropleth is the star), thin borders, a brighter/thicker
* border for the player, hover + click popups with
* owner + stats, a transient flash on territory changes, and a
* per-scenario initial camera. It exposes a tiny zoom/pan API so the floating
* zoom control can drive it (no MapLibre navigation controls are shown).
* World basemap (MapLibre GL) + a **sub-national** choropleth. The map renders
* the finer `regions.geo.json` dataset: each country is subdivided into
* ~100–200 km sub-regions, drawn as a finer choropleth with thin internal border
* lines. Ownership is at **region-key** granularity (v0.19, #16 P1): each
* sub-region has its own region key (from `public/region-keys.json`, looked up
* by the feature's stable id) and the RegionMap is keyed by that key, so a
* single sub-region can change owner independently of its neighbours. Rendered
* as a fixed, full-viewport background layer (z-0) behind the floating HUD
* windows: a dark-navy basemap with subtle terrain, per-nation stable fills,
* thin sub-region borders, a brighter/thicker amber border for the player's
* regions, a hover tooltip (sub-region name + current owner + key stats), a
* **click that switches the dossier to the sub-region's owning nation** (no
* popup — see #7), a transient flash when a sub-region's owner changes, and a
* per-scenario initial camera.
*
* Ownership for a hovered/clicked sub-region is resolved from the authoritative
* RegionMap by its stamped **region key** (`properties.regionKey`, via
* `mapFeatureOwner` in @shared/protocol) — never from the feature's top-level
* `id` (MapLibre repacks it into a numeric index at interaction time, #6) and
* never from the raw sub-region id (not a RegionMap key). Unowned sub-regions
* (no RegionMap entry for their key) simply do not change the dossier.
*
* (v0.22, #16 P3) An unowned region renders two distinct ways: a key in the
* `unowned` prop (released to no man's land mid-game — `GameState.unowned`)
* gets the distinct visible grey with a "No man's land" tooltip sub-line; every
* other ownerless region (a preset never assigned it) keeps the faint look and
* a plain "No owner" sub-line. The colors/labels come from the shared
* `regionFillStyle` / `unownedTooltipLabel` contract in @shared/protocol.
*
* Zoom and pan are driven directly by the user (MapLibre wheel/trackpad + drag)
* — no floating control and no external API.
*/
export default function WorldMap({
regions,
@@ -210,25 +295,28 @@ export default function WorldMap({
nations,
presetId,
className,
unowned,
onFocusNation,
onMapReady,
}: Props) {
const containerRef = useRef<HTMLDivElement>(null);
const mapRef = useRef<maplibregl.Map | null>(null);
const baseGeoRef = useRef<FeatureCollection | null>(null);
// The region-key manifest (feature id -> region key), loaded once; used to
// stamp each feature's region key and to expand the flash to its sub-region.
const idKeyRef = useRef<Record<string, string> | null>(null);
// Latest props, so the mount effect's (re)establish closure always sees them.
const regionsRef = useRef(regions);
const nationsRef = useRef(nations);
const playerRef = useRef(playerNationId);
const presetRef = useRef(presetId);
const unownedRef = useRef<Set<string>>(new Set(unowned ?? []));
const onFocusNationRef = useRef(onFocusNation);
const onMapReadyRef = useRef(onMapReady);
regionsRef.current = regions;
nationsRef.current = nations;
playerRef.current = playerNationId;
presetRef.current = presetId;
unownedRef.current = new Set(unowned ?? []);
onFocusNationRef.current = onFocusNation;
onMapReadyRef.current = onMapReady;
// Diffing state for the transient territory-change flash (owned by this component
// so a resync with identical data never re-flashes).
@@ -257,27 +345,15 @@ export default function WorldMap({
// Purely for testability; has no effect on rendering or behavior.
(containerRef.current as unknown as { __map?: maplibregl.Map }).__map = map;
// Expose a tiny zoom/pan API to the floating control (null on unmount).
const api: MapApi = {
zoomIn: () => map.zoomIn(),
zoomOut: () => map.zoomOut(),
reset: () => {
const c = cameraForPreset(presetRef.current);
map.easeTo({ center: c.center, zoom: c.zoom, duration: 600 });
},
};
onMapReadyRef.current?.(api);
const hoverPopup = new maplibregl.Popup({ closeButton: false, closeOnClick: false, offset: 10 });
const clickPopup = new maplibregl.Popup({ closeButton: true, closeOnClick: true, offset: 12 });
let lastHoverId: string | null = null;
const loadGeo = (): Promise<FeatureCollection> =>
baseGeoRef.current
? Promise.resolve(baseGeoRef.current)
: fetch('/countries.geo.json')
: fetch('/regions.geo.json')
.then((r) => {
if (!r.ok) throw new Error(`countries.geo.json → HTTP ${r.status}`);
if (!r.ok) throw new Error(`regions.geo.json → HTTP ${r.status}`);
return r.json();
})
.then((g: FeatureCollection) => {
@@ -285,15 +361,28 @@ export default function WorldMap({
return g;
});
// The region-key manifest (feature id -> region key), fetched once and
// cached in a ref so both the paint path and the flash can resolve keys.
const loadIdKey = (): Promise<Record<string, string>> =>
idKeyRef.current
? Promise.resolve(idKeyRef.current)
: idToKey().then((k) => {
idKeyRef.current = k;
return k;
});
const emptyFC = (): FeatureCollection => ({ type: 'FeatureCollection', features: [] });
// Transient flash: pulse a bright outline over the changed regions, then fade
// to zero over a few seconds and self-clean. Idempotent per call.
// to zero over a few seconds and self-clean. Idempotent per call. `codes` are
// region keys (a turn can change individual sub-regions, v0.19 #16 P1); each
// lights up exactly the sub-region that owns that key.
function animateFlash(codes: string[]) {
const geo = baseGeoRef.current;
const idKey = idKeyRef.current;
const src = map.getSource(FLASH_SOURCE) as GeoSource | undefined;
if (!geo || !src || cancelled) return;
src.setData(featuresByCodes(geo, codes));
if (!geo || !idKey || !src || cancelled) return;
src.setData(featuresByRegionKeys(geo, codes, idKey));
if (!map.getLayer(FLASH_LINE)) {
// Defensive re-add (normally created by ensureLayers). Keep it beneath the
// hover highlight when that layer exists; otherwise just append.
@@ -326,24 +415,38 @@ export default function WorldMap({
}
flashApiRef.current = animateFlash;
// The sub-region a hovered/clicked feature belongs to is identified by its
// stable sub-region id in `properties.regionId` (stamped by `applyRegions`),
// and its **owner** is resolved from the authoritative RegionMap via the
// feature's stamped `properties.regionKey` through
// `mapFeatureOwner` — never from the repacked top-level `id` (a numeric
// index, #6) and never from the raw sub-region id (not a RegionMap key).
const onHover = (e: maplibregl.MapLayerMouseEvent) => {
const f = e.features?.[0];
if (!f) return;
const id = f.id == null ? null : String(f.id);
if (id && id !== lastHoverId) {
lastHoverId = id;
const p = f.properties as { name?: string; regionId?: string };
const subId = typeof p?.regionId === 'string' ? p.regionId : '';
if (subId && subId !== lastHoverId) {
lastHoverId = subId;
const geo = baseGeoRef.current;
const feat = geo?.features.find((x) => x.id != null && String(x.id) === id);
// The base GeoJSON feature's top-level `id` IS the sub-region id, so
// match on it to recover the exact feature for the hover-highlight
// outline (the feature MapLibre hands us has a repacked numeric `id`).
const feat = geo?.features.find((x) => x.id != null && String(x.id) === subId);
(map.getSource(HOVER_SOURCE) as GeoSource | undefined)?.setData(
feat ? { type: 'FeatureCollection', features: [JSON.parse(JSON.stringify(feat))] } : emptyFC(),
);
}
const p = f.properties as { name?: string };
const region = id ? regionsRef.current[id] : undefined;
const region = mapFeatureOwner(regionsRef.current, f);
const nation = region ? nationsRef.current[region.ownerId] : undefined;
// (v0.22, #16 P3) whether this region is no man's land (released
// mid-game), so the ownerless tooltip can say so.
const pKey = f.properties?.regionKey;
const noMansLand =
!region && typeof pKey === 'string' && pKey !== '' && unownedRef.current.has(pKey);
hoverPopup
.setLngLat(e.lngLat)
.setHTML(hoverHtml(p?.name ?? id ?? '', region, nation))
.setHTML(hoverHtml(p?.name ?? subId, region, nation, noMansLand))
.addTo(map);
map.getCanvas().style.cursor = 'pointer';
};
@@ -355,15 +458,21 @@ export default function WorldMap({
map.getCanvas().style.cursor = '';
};
// #7: a click does NOT open a popup — it switches the dossier to the region's
// owning nation, resolved from the feature's stamped `properties.regionKey`
// via the RegionMap (never the repacked top-level `f.id`, #6, and never the
// raw sub-region id). A sub-region whose key has no owner leaves the current
// dossier target unchanged — never a broken dossier.
const onClick = (e: maplibregl.MapLayerMouseEvent) => {
const f = e.features?.[0];
if (!f) return;
const id = f.id == null ? null : String(f.id);
const region = mapFeatureOwner(regionsRef.current, f);
if (!region?.ownerId) return;
// Carry the clicked sub-region's name so the dossier can show which region
// was selected.
const p = f.properties as { name?: string };
const region = id ? regionsRef.current[id] : undefined;
const nation = region ? nationsRef.current[region.ownerId] : undefined;
clickPopup.setLngLat(e.lngLat).setHTML(clickHtml(p?.name ?? id ?? '', region, nation)).addTo(map);
if (region?.ownerId) onFocusNationRef.current?.(region.ownerId);
const info = { name: typeof p?.name === 'string' ? p.name : undefined };
onFocusNationRef.current?.(region.ownerId, info);
};
// Idempotent: (re)creates the sources + layers after any style (re)load and
@@ -371,16 +480,16 @@ export default function WorldMap({
// automatically, so no setWorkerUrl is needed.)
//
// The three choropleth sources are created up front (empty until the base
// geo arrives) so the layer structure always exists; `paintCountries` then
// stamps ownership + colors onto the countries source. This makes it immune
// geo arrives) so the layer structure always exists; `paintRegions` then
// stamps ownership + colors onto the regions source. This makes it immune
// to load-order races: if `ensureLayers` runs before the geo fetch
// resolves, the data is applied the moment the fetch lands; if the geo
// resolves first, `ensureLayers` uses it. No source is ever left stuck on
// `emptyFC()` — `ensureLayers` is retried on every `styledata`, and the
// regions effect re-paints whenever ownership changes.
const ensureSources = () => {
if (!map.getSource(COUNTRIES_SOURCE)) {
map.addSource(COUNTRIES_SOURCE, { type: 'geojson', data: emptyFC() });
if (!map.getSource(REGIONS_SOURCE)) {
map.addSource(REGIONS_SOURCE, { type: 'geojson', data: emptyFC() });
}
if (!map.getSource(HOVER_SOURCE)) {
map.addSource(HOVER_SOURCE, { type: 'geojson', data: emptyFC() });
@@ -390,44 +499,57 @@ export default function WorldMap({
}
};
// Stamp ownership + colors onto the countries source (no-op until geo loads).
const paintCountries = () => {
// Stamp ownership + colors onto the regions source (no-op until both the
// base geo and the region-key manifest are loaded).
const paintRegions = () => {
const geo = baseGeoRef.current;
const src = map.getSource(COUNTRIES_SOURCE) as GeoSource | undefined;
if (!geo || !src) return;
src.setData(applyRegions(geo, regionsRef.current, playerRef.current));
const idKey = idKeyRef.current;
const src = map.getSource(REGIONS_SOURCE) as GeoSource | undefined;
if (!geo || !idKey || !src) return;
src.setData(applyRegions(geo, regionsRef.current, playerRef.current, idKey, unownedRef.current));
};
const ensureLayers = async () => {
if (cancelled) return;
ensureSources();
if (baseGeoRef.current) {
paintCountries();
} else {
if (!baseGeoRef.current) {
try {
await loadGeo();
} catch (err) {
console.error('failed to load countries geojson', err);
console.error('failed to load regions geojson', err);
}
}
if (!idKeyRef.current) {
try {
await loadIdKey();
} catch (err) {
console.error('failed to load region keys', err);
}
}
if (cancelled) return;
paintCountries();
}
paintRegions();
if (!map.getLayer(FILL_LAYER)) {
// The choropleth is the star: a high opacity so the vivid per-nation
// colors read clearly even on the dark background / over the terrain.
// Each sub-region carries its own owning nation's color (v0.19 #16 P1),
// so the fill traces region-key ownership, not country borders.
map.addLayer({
id: FILL_LAYER,
type: 'fill',
source: COUNTRIES_SOURCE,
paint: { 'fill-color': ['get', 'fill'], 'fill-opacity': 0.85 },
source: REGIONS_SOURCE,
paint: { 'fill-color': ['get', 'fill'], 'fill-opacity': 1.0 },
});
}
if (!map.getLayer(LINE_LAYER)) {
// Thin internal borders: every sub-region outline at a light weight so
// the subdivision reads within each country's uniform fill. The per-
// feature `stroke` alpha keeps owned borders a touch brighter than
// unowned ones (the v0.10 treatment, thinned for the finer grid).
map.addLayer({
id: LINE_LAYER,
type: 'line',
source: COUNTRIES_SOURCE,
paint: { 'line-color': ['get', 'stroke'], 'line-width': 0.7, 'line-opacity': 0.95 },
source: REGIONS_SOURCE,
paint: { 'line-color': ['get', 'stroke'], 'line-width': 0.75, 'line-opacity': 0.95 },
});
}
// NOTE: layers are added in bottom→top order (each appends on top). The
@@ -438,7 +560,7 @@ export default function WorldMap({
map.addLayer({
id: PLAYER_LINE,
type: 'line',
source: COUNTRIES_SOURCE,
source: REGIONS_SOURCE,
filter: ['==', ['get', 'isPlayer'], 1],
paint: { 'line-color': '#f59e0b', 'line-width': 2.2, 'line-opacity': 0.95 },
});
@@ -482,7 +604,6 @@ export default function WorldMap({
cancelled = true;
cancelAnimationFrame(flashRaf);
flashApiRef.current = null;
onMapReadyRef.current?.(null);
map.remove();
mapRef.current = null;
if (containerRef.current) {
@@ -491,30 +612,39 @@ export default function WorldMap({
};
}, []);
// Re-color the choropleth whenever ownership changes, and flash any regions
// whose owner changed since the last update (transient, self-cleaning).
// Re-color the choropleth whenever ownership changes, and flash each
// sub-region whose owner changed since the last update (a transient,
// self-cleaning pulse). The diff is over the region-keyed RegionMap (v0.19
// #16 P1); `animateFlash` lights up exactly the sub-region for each changed
// key. Re-runs when the no-man's-land set changes too (v0.22 #16 P3) so a
// release/re-claim repaints the grey even if the RegionMap diff alone
// wouldn't catch it.
useEffect(() => {
const map = mapRef.current;
const geo = baseGeoRef.current;
const idKey = idKeyRef.current;
const cur = regions;
const prev = prevRegionsRef.current;
prevRegionsRef.current = cur;
const wasPrimed = primedRef.current;
if (Object.keys(cur).length > 0) primedRef.current = true;
const unownedSet = new Set(unowned ?? []);
if (map && geo) {
const src = map.getSource(COUNTRIES_SOURCE) as GeoSource | undefined;
if (src) void src.setData(applyRegions(geo, cur, playerNationId));
if (map && geo && idKey) {
const src = map.getSource(REGIONS_SOURCE) as GeoSource | undefined;
if (src) void src.setData(applyRegions(geo, cur, playerNationId, idKey, unownedSet));
}
if (wasPrimed && prev) {
if (wasPrimed && prev && idKey) {
const changed = new Set<string>();
for (const code of new Set([...Object.keys(prev), ...Object.keys(cur)])) {
if ((prev[code]?.ownerId ?? '') !== (cur[code]?.ownerId ?? '')) changed.add(code);
for (const key of new Set([...Object.keys(prev), ...Object.keys(cur)])) {
if ((prev[key]?.ownerId ?? '') !== (cur[key]?.ownerId ?? '')) changed.add(key);
}
// A release (owned → unowned) and a re-claim (unowned → owned) both show
// up as ownerId changes above, so they flash like any other transfer.
if (changed.size > 0) flashApiRef.current?.([...changed]);
}
}, [regions, playerNationId]);
}, [regions, playerNationId, unowned]);
// Full-viewport, edge-to-edge background layer. `position: fixed` is set
// inline because MapLibre's own stylesheet sets `.maplibregl-map` to
+52 -4
View File
@@ -2,7 +2,18 @@
// proxied by Vite in dev and served by Express in prod), so no origin is ever
// hardcoded — this works unchanged behind the Traefik proxy.
import type { GameState, Preset, PresetMeta } from '@shared/types';
import type { AdvisorResponse, CreateGameResponse, GameSummary, TurnResponse } from '@shared/protocol';
import type {
AddActionResponse,
AddDiplomacyResponse,
AdvisorResponse,
ConfirmNationOpResponse,
CreateGameResponse,
DeleteGameResponse,
GameSummary,
RejectNationOpResponse,
RemoveQueueItemResponse,
TurnResponse,
} from '@shared/protocol';
async function req<T>(path: string, init?: RequestInit): Promise<T> {
const res = await fetch(path, {
@@ -25,14 +36,51 @@ export const api = {
body: JSON.stringify({ presetId, playerNationId }),
}),
getGame: (id: string) => req<{ game: GameState }>(`/api/games/${id}`),
// Delete a saved game entirely. Fast, non-LLM. Returns { deleted: true }.
deleteGame: (id: string) =>
req<DeleteGameResponse>(`/api/games/${id}`, { method: 'DELETE' }),
// Every saved game as a lightweight summary, newest-updated first (for the
// home screen's "Saved games" section / resume affordances).
listGames: () => req<{ games: GameSummary[] }>('/api/games'),
turn: (id: string, action?: string, chat?: { to: string; message: string }) =>
req<TurnResponse>(`/api/games/${id}/turn`, {
// Queue a free-text player action onto the pending round. No LLM call — the
// round is only committed by `jump`. Returns the updated game (with pending).
addAction: (id: string, text: string) =>
req<AddActionResponse>(`/api/games/${id}/action`, {
method: 'POST',
body: JSON.stringify({ action, chat }),
body: JSON.stringify({ text }),
}),
// Queue a diplomatic message to a target nation onto the pending round.
addDiplomacy: (id: string, to: string, message: string) =>
req<AddDiplomacyResponse>(`/api/games/${id}/diplomacy`, {
method: 'POST',
body: JSON.stringify({ to, message }),
}),
// Remove one queued item from the pending round, by its index in `game.pending`.
// Fast, non-LLM — no turn advance. Returns the updated game.
removeQueueItem: (id: string, index: number) =>
req<RemoveQueueItemResponse>(`/api/games/${id}/queue/remove`, {
method: 'POST',
body: JSON.stringify({ index }),
}),
// (v0.23, #16 P4a; v0.24, #16 P4b) Confirm a pending nation-op proposal by
// its index in `game.pendingNationOps`: a rename takes effect (`edits.name`
// overrides the proposed name), a split partitions the nation's territory
// (`edits.playerPart` picks which part the player leads, default 0), and a
// merge folds its inputs into the survivor (`edits.name` overrides the
// merged name). Fast, non-LLM — no turn advance. Returns the updated game.
confirmNationOp: (id: string, index: number, edits?: { name?: string; playerPart?: number }) =>
req<ConfirmNationOpResponse>(`/api/games/${id}/nation-op/confirm`, {
method: 'POST',
body: JSON.stringify({ index, ...(edits ? { edits } : {}) }),
}),
// (v0.23, #16 P4a) Reject (drop) a pending nation-op proposal by index,
// without applying it. Fast, non-LLM — no turn advance. Returns the updated game.
rejectNationOp: (id: string, index: number) =>
req<RejectNationOpResponse>(`/api/games/${id}/nation-op/reject`, {
method: 'POST',
body: JSON.stringify({ index }),
}),
// Commit the whole pending round (or an empty one) in a single LLM turn.
jump: (id: string) =>
req<TurnResponse>(`/api/games/${id}/jump`, {
method: 'POST',
+46
View File
@@ -0,0 +1,46 @@
// Client-side region-key data access. Fetches the two static JSON files served
// from public/ and builds the lookups the region-level UI needs:
// - idToKey(): feature id -> region key (to stamp each map feature + resolve owner)
// - keyToName(): region key -> human name (to show region names in the dossier)
// Each is fetched once and cached (Promise singleton) so WorldMap and NationPanel
// share a single fetch. Same-origin relative URLs (proxy/Traefik safe) — never a
// hardcoded origin.
type GeoLike = {
features?: Array<{ id?: string | number; properties?: { name?: string } }>;
};
let idKeyPromise: Promise<Record<string, string>> | null = null;
let keyNamePromise: Promise<Record<string, string>> | null = null;
async function fetchJson<T>(url: string): Promise<T> {
const r = await fetch(url);
if (!r.ok) throw new Error(`${url} → HTTP ${r.status}`);
return (await r.json()) as T;
}
/** feature id (from regions.geo.json) -> region key (from region-keys.json). */
export function idToKey(): Promise<Record<string, string>> {
idKeyPromise ??= fetchJson<Record<string, string>>('/region-keys.json');
return idKeyPromise;
}
/**
* region key -> human region name. Built by joining region-keys.json (id -> key)
* with regions.geo.json (id -> properties.name). A key with no known name is
* simply absent (callers fall back to the raw key).
*/
export function keyToName(): Promise<Record<string, string>> {
keyNamePromise ??= Promise.all([idToKey(), fetchJson<GeoLike>('/regions.geo.json')]).then(
([keys, geo]) => {
const out: Record<string, string> = {};
for (const f of geo.features ?? []) {
const id = f.id == null ? '' : String(f.id);
const key = keys[id];
const name = f.properties?.name;
if (key && typeof name === 'string') out[key] = name;
}
return out;
},
);
return keyNamePromise;
}
+17
View File
@@ -5,6 +5,12 @@ import type { TurnResult } from '@shared/protocol';
interface SseHandlers {
onState?: (state: GameState) => void;
onTurn?: (state: GameState, result: TurnResult) => void;
/**
* Fired for a server-sent NAMED `event: error` (a MessageEvent with a JSON
* body `{ message }`) — e.g. the game was deleted or no longer exists. Pure
* connection errors (no data) are ignored and EventSource auto-reconnects.
*/
onError?: (message: string) => void;
}
/**
@@ -37,8 +43,19 @@ export function useSse(id: string | null, handlers: SseHandlers): void {
/* ignore malformed */
}
};
const onError = (e: Event) => {
if (e instanceof MessageEvent && e.data) {
try {
const d = JSON.parse(e.data) as { message?: string };
if (d.message) handlersRef.current.onError?.(d.message);
} catch {
/* ignore malformed */
}
}
};
es.addEventListener('state', onState);
es.addEventListener('turn', onTurn);
es.addEventListener('error', onError);
return () => es.close();
}, [id]);
}
+1 -1
View File
@@ -20,5 +20,5 @@
"@/*": ["./src/*"]
}
},
"include": ["src", "server", "shared", "e2e", "vite.config.ts"]
"include": ["src", "server", "shared", "e2e", "scripts", "vite.config.ts"]
}
+1 -1
View File
@@ -13,7 +13,7 @@ export default defineConfig({
},
test: {
environment: 'node',
include: ['server/**/*.test.ts'],
include: ['server/**/*.test.ts', 'scripts/**/*.test.ts'],
testTimeout: 20000,
hookTimeout: 20000,
},