3174 lines
165 KiB
JavaScript
3174 lines
165 KiB
JavaScript
// Headless verification for Master of Vega (Master of Orion clone).
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// node tools/verifyMasterOfVega.js [--quick] [--games=N]
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// Exits non-zero on any failure.
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//
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// 1. Rules integrity: ids unique, tech chains acyclic and fully ranked, every
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// tech matters, hull/weapon/building bounds, frame indexes in range.
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// 2. Procedural art: run the real painters against a fake canvas and assert
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// every frame the rules reference was registered.
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// 3. Galaxy generation: determinism, star counts, lane connectivity, homeworld
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// spacing and habitability, opening-range fairness.
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// 4. Ship Marks: damage and hull monotonic in tech; no NaN anywhere.
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// 5. Combat: determinism, mirror-match fairness, tech/number advantage,
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// auto-resolve agrees with playing it out, no battle hits the round cap.
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// 6. Colony economy: slider normalisation, mandatory ecology, spillover,
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// factory cap, growth, waste recovery.
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// 7. Diplomacy and the Galactic Council: vote arithmetic, refusal, no deadlock.
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// 8. Leaders: hiring, postings, upkeep bounds.
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// 9. Serialisation: round-trip byte-identical, hash stable, version rejected.
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// 10. AI self-play soak: full games terminate, both victory kinds occur,
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// invariants hold, AI turn-time budget.
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import { readFileSync, existsSync } from 'node:fs';
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import { fileURLToPath } from 'node:url';
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import { dirname, join } from 'node:path';
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import { compileRules, techCost, techCostFactor, markNumeral } from '../src/games/mastervega/VegaRules.js';
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import { generateGalaxy, isConnected, parsecs, mulberry32, PARSEC_PX } from '../src/games/mastervega/VegaGalaxyGen.js';
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import * as Ships from '../src/games/mastervega/VegaShips.js';
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import * as Combat from '../src/games/mastervega/VegaCombat.js';
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import * as CombatV2 from '../src/games/mastervega/VegaCombatV2.js';
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import { FORMATION_STRATEGIES } from '../src/games/mastervega/VegaFormations.js';
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import * as Logic from '../src/games/mastervega/VegaLogic.js';
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import * as AI from '../src/games/mastervega/VegaAI.js';
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import * as Diplo from '../src/games/mastervega/VegaDiplomacy.js';
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import * as Leaders from '../src/games/mastervega/VegaLeaders.js';
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// Phaser-free half of the star map's zoom behaviour.
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import {
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buildZoomLadder, minZoomFor, pickFitZoomIndex, MAX_ZOOM, DEFAULT_ZOOM_INDEX,
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} from '../src/games/mastervega/VegaZoom.js';
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// Pure art module: the painters need a canvas, but the sheet bookkeeping around
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// them is checkable headlessly and worth checking.
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import {
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ensureSheets, shipFrame, planetFrame, techFrame, buildingFrame,
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speciesVideoKey, speciesStillKey, speciesSpeechClip, UI_SPEECH, worldBgKey,
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colonyVideoKey, audienceVideoKey, sourceWidth,
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} from '../src/games/mastervega/VegaArt.js';
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import { CHAT } from '../src/games/mastervega/VegaChat.js';
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// Turn-report classification is Phaser-free, so what the "New Turn" popup will
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// and will not interrupt the player for is checkable here.
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import { NOTABLE_TYPES, describeEvent, TYPE_LABEL } from '../src/games/mastervega/VegaTurnReport.js';
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// Ship media is addressed here and nowhere else, so the key convention is
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// checkable without a canvas.
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import { shipVideoKey, hasShipVideo } from '../src/games/mastervega/VegaShipMedia.js';
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// Dependency-free, so what the game room eagerly pulls is checkable here.
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import { resolveGameAssets } from '../src/data/assetManifest.js';
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const QUICK = process.argv.includes('--quick');
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const gamesArg = process.argv.find((a) => a.startsWith('--games='));
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const root = join(dirname(fileURLToPath(import.meta.url)), '..');
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const rulesJson = JSON.parse(readFileSync(join(root, 'data/mastervega-rules.json'), 'utf8'));
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const artJson = JSON.parse(readFileSync(join(root, 'data/mastervega-artwork.json'), 'utf8'));
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let failures = 0;
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let passes = 0;
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function check(name, cond, detail = '') {
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if (cond) { passes += 1; return; }
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failures += 1;
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console.error(` FAIL ${name}${detail ? ` — ${detail}` : ''}`);
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}
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function section(name) { console.log(`\n== ${name}`); }
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const RULES = compileRules(rulesJson);
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// ---------------------------------------------------------------------------
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section('1. Rules integrity');
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// ---------------------------------------------------------------------------
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{
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check('compileRules accepted the shipped rules', !!RULES);
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check('six tech fields', RULES.techFieldList.length === 6, `${RULES.techFieldList.length}`);
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check('ten species', RULES.speciesList.length === 10, `${RULES.speciesList.length}`);
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// Every tech ranked (proves the chains are acyclic and fully reachable).
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check('every tech is ranked', Object.keys(RULES.techRank).length === RULES.techList.length);
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for (const t of RULES.techList) {
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check(`tech ${t.id} rank equals its tier`, RULES.techRank[t.id] === t.tier);
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}
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// "Every tech matters": it either gates a building, feeds a later tech, or
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// carries an effect of its own.
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for (const t of RULES.techList) {
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const g = RULES.techGates[t.id];
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const matters = g.buildings.length > 0 || g.prereqOf.length > 0 || g.effects.length > 0;
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check(`tech ${t.id} matters`, matters);
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}
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// Frame indexes must be unique per sheet and inside it.
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const techFrames = RULES.techList.map((t) => t.iconFrame);
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check('tech icon frames unique', new Set(techFrames).size === techFrames.length);
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const techSheet = artJson.sheets.techicons;
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const techCap = techSheet.cols * techSheet.rows;
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check('tech icon frames fit the sheet', Math.max(...techFrames) < techCap,
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`max ${Math.max(...techFrames)} of ${techCap}`);
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const buildFrames = RULES.buildingList.map((b) => b.frame);
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check('building frames unique', new Set(buildFrames).size === buildFrames.length);
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check('building frames fit the sheet',
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Math.max(...buildFrames) < artJson.sheets.buildings.cols * artJson.sheets.buildings.rows);
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const portraitFrames = RULES.speciesList.map((s) => s.portraitFrame);
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check('species portrait frames unique', new Set(portraitFrames).size === portraitFrames.length);
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check('species ship rows fit the ship sheet',
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Math.max(...RULES.speciesList.map((s) => s.shipFrame)) < artJson.sheets.ships.rows);
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check('hull columns fit the ship sheet',
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Math.max(...RULES.hullList.map((h) => h.frame)) < artJson.sheets.ships.cols);
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check('planet frames fit the sheet',
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Math.max(...RULES.planetTypeList.map((p) => p.frame))
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< artJson.sheets.planets.cols * artJson.sheets.planets.rows);
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check('leader frames fit the sheet',
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Math.max(...RULES.leaderList.map((l) => l.portraitFrame))
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< artJson.sheets.leaders.cols * artJson.sheets.leaders.rows);
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// Weapons must be mountable on something.
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const smallest = Math.min(...RULES.hullList.filter((h) => h.space > 0).map((h) => h.space));
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for (const t of RULES.techList) {
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const w = t.effects?.weapon;
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if (!w) continue;
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check(`weapon ${w.id} fits some hull`, w.space <= Math.max(...RULES.hullList.map((h) => h.space)));
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check(`weapon ${w.id} has sane damage`, w.min > 0 && w.max >= w.min);
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if (w.kind === 'missile') check(`missile ${w.id} has salvoes`, w.shots > 0);
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}
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check('the smallest warship can mount the starting beam',
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RULES.techs.lasercannon.effects.weapon.space <= smallest);
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// Research cost must climb.
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const c0 = techCost(RULES, RULES.techs.lasercannon, 0);
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const c9 = techCost(RULES, RULES.techs.stellarconverter, 9);
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check('research costs climb across a field', c9 > c0 * 50, `${c0} -> ${c9}`);
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check('markNumeral covers Mark VII', markNumeral(7) === 'VII');
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// Racial skill (MOO1-corrected): Poor/Average/Good/Excellent changes what a
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// tech COSTS, bucketed from the species' existing techAffinity rating.
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{
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check('a Poor-field bucket costs 125%', techCostFactor(RULES.species.ursaal, 'computers') === 1.25);
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check('an Average-field bucket costs 100%', techCostFactor(RULES.species.human, 'weapons') === 1);
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check('a Good-field bucket costs 80%', techCostFactor(RULES.species.umbrix, 'computers') === 0.8);
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check('an Excellent-field bucket costs 60%', techCostFactor(RULES.species.cerebrai, 'computers') === 0.6);
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const tech = RULES.techs.electroniccomputer;
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const base = techCost(RULES, tech, 0);
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const excellent = techCost(RULES, tech, 0, techCostFactor(RULES.species.cerebrai, 'computers'));
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const poor = techCost(RULES, tech, 0, techCostFactor(RULES.species.ursaal, 'computers'));
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check('an Excellent species pays less than the base cost', excellent < base, `${excellent} vs ${base}`);
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check('a Poor species pays more than the base cost', poor > base, `${poor} vs ${base}`);
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// Every species must land in exactly one of the four buckets for every
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// field — a NaN or unbucketed affinity would silently zero out cost.
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for (const s of RULES.speciesList) {
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for (const f of Object.keys(RULES.techFields)) {
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const factor = techCostFactor(s, f);
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check(`${s.id}.${f} cost factor is one of the four MOO1 buckets`,
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[1.25, 1, 0.8, 0.6].includes(factor), `${factor}`);
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}
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}
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}
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// Branching-tier rung gating (MOO1-style): a rung clears once ANY sibling
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// is known, not all of them, and the un-picked sibling stays researchable
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// (never force-required) afterward.
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{
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const branchedField = 'weapons';
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const rungTier = RULES.techs.protontorpedoes.tier; // 2 — same tier as neutronpellet
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const emp = {
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known: {}, available: Object.fromEntries(RULES.techList.map((t) => [t.id, true])),
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};
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const state = { empires: [emp] };
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const e = 0;
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// Grant everything below the branched rung so it's the live edge.
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for (const t of RULES.techsByField[branchedField]) {
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if (t.tier < rungTier) emp.known[t.id] = true;
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}
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check('branched rung is open before either sibling is known',
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Logic.canResearch(RULES, state, e, RULES.techs.neutronpellet)
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&& Logic.canResearch(RULES, state, e, RULES.techs.protontorpedoes));
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emp.known.neutronpellet = true; // pick ONE sibling
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const nextTier = RULES.techsByField[branchedField].find((t) => t.tier === rungTier + 1);
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check('the rung clears after only ONE sibling is known', Logic.canResearch(RULES, state, e, nextTier));
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check('the un-picked sibling stays researchable, not force-required',
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Logic.canResearch(RULES, state, e, RULES.techs.protontorpedoes));
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// setResearchTarget switches emp.researching[field] without touching
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// emp.beakers[field] — RP banked in a field is a shared pool.
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emp.researching = { weapons: null };
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emp.beakers = { weapons: 137 };
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check('setResearchTarget accepts an open sibling',
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Logic.setResearchTarget(RULES, state, e, 'weapons', 'protontorpedoes'));
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check('setResearchTarget points researching at the chosen tech',
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emp.researching.weapons === 'protontorpedoes');
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check('setResearchTarget leaves banked beakers untouched', emp.beakers.weapons === 137);
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check('setResearchTarget rejects a tech gated by an uncleared lower rung',
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!Logic.setResearchTarget(RULES, state, e, 'weapons', 'deathray'));
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}
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// The weapons T8 rung is 3-way (second branching pass) — the same
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// rung-clearing logic already proven generic for 2-way rungs above must
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// also hold for 3.
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{
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const emp = { known: {}, available: Object.fromEntries(RULES.techList.map((t) => [t.id, true])) };
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const state = { empires: [emp] };
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const e = 0;
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for (const t of RULES.techsByField.weapons) if (t.tier < 8) emp.known[t.id] = true;
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const rung8 = RULES.techRungsByField.weapons.find((r) => r.tier === 8);
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check('the weapons T8 rung has three alternatives', rung8.techs.length === 3, `${rung8.techs.length}`);
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check('all three T8 weapons are researchable before any is known',
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rung8.techs.every((t) => Logic.canResearch(RULES, state, e, t)));
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emp.known[rung8.techs[0].id] = true; // pick one of the three
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const t9 = RULES.techsByField.weapons.find((t) => t.tier === 9);
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check('the T8 rung clears after only ONE of three siblings is known', Logic.canResearch(RULES, state, e, t9));
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check('the two un-picked T8 siblings stay researchable',
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rung8.techs.slice(1).every((t) => Logic.canResearch(RULES, state, e, t)));
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}
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// fieldTechLevel (per-field level display): hand-computed against real
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// computers tiers (electroniccomputer T0, battlescanner T1, optroniccomputer
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// T2, securecommarray T1 sibling of battlescanner).
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{
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const emp = { known: {} };
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const state = { empires: [emp] };
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const e = 0;
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check('an empire with nothing known is level 0 in every field',
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Object.keys(RULES.techFields).every((f) => Logic.fieldTechLevel(RULES, state, e, f) === 0));
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emp.known.electroniccomputer = true; // T0 freebie only
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check('T0-only (the free opener) is level 0', Logic.fieldTechLevel(RULES, state, e, 'computers') === 0);
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emp.known.battlescanner = true; // T1
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emp.known.optroniccomputer = true; // T2, new frontier: knownTiers=[0,1,2], extra(<2)=2 -> 2*5+2=12
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check('a clean T2 frontier is level 12', Logic.fieldTechLevel(RULES, state, e, 'computers') === 12,
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`${Logic.fieldTechLevel(RULES, state, e, 'computers')}`);
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emp.known.securecommarray = true; // T1 side-pick, sibling of battlescanner
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// knownTiers=[0,1,1,2], highest=2, extra(<2)=3 -> 2*5+3=13
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check('mopping up a T1 side-pick below the frontier adds exactly +1',
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Logic.fieldTechLevel(RULES, state, e, 'computers') === 13,
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`${Logic.fieldTechLevel(RULES, state, e, 'computers')}`);
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}
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// Corrected MOO1 availability roll: flat per-tech odds regardless of
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// racial skill (skill affects cost only, techCostFactor above), 75% for
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// Cerebrai, 50% for everyone else, and a branched rung can never end up
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// with zero available techs. Statistical — one roll proves nothing.
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//
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// The "close to 50%/75%" claim is measured over UNBRANCHED (size-1) rungs
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// only, deliberately — a branched rung's guaranteed-survivor pass only
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// ever ADDS availability, never removes it, so the aggregate rate across
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// the WHOLE tree drifts upward from the raw roll chance by an amount that
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// scales with how much of the tree happens to be branched (61 of 85
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// non-tier-0 techs sit in a branched rung as of the second branching
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// pass, pulling the human aggregate to ~0.59 — a real, correct effect of
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// the guarantee, not a bug). Measuring size-1 rungs isolates the actual
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// unmodified flat roll, so this check stays accurate regardless of future
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// branching density changes instead of needing re-tuning every time.
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{
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const TRIALS = 4000;
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const rollRate = (spec) => {
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let flatAvailableCount = 0;
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let flatTotalCount = 0;
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let everEmpty = false;
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for (let seed = 1; seed <= TRIALS; seed += 1) {
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const state = { rngState: (seed * 2654435761) | 0 };
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const available = Logic.rollTechAvailability(state, RULES, {}, spec);
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for (const field of Object.keys(RULES.techFields)) {
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for (const rung of RULES.techRungsByField[field]) {
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if (rung.tier === 0) continue;
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if (rung.techs.length === 1) {
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flatTotalCount += 1;
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if (available[rung.techs[0].id]) flatAvailableCount += 1;
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} else if (rung.techs.every((t) => !available[t.id])) {
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everEmpty = true;
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}
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}
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}
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}
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return { rate: flatAvailableCount / flatTotalCount, everEmpty };
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};
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const human = rollRate(RULES.species.human);
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check('human (flat 50%) empirical availability rate on unbranched rungs is close to 50%',
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human.rate > 0.45 && human.rate < 0.55, `${human.rate.toFixed(3)}`);
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check('no branched rung is ever left with zero available techs (human roll)', !human.everEmpty);
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const cerebrai = rollRate(RULES.species.cerebrai);
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check("Cerebrai's (75%) empirical availability rate on unbranched rungs is close to 75% and above human's",
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cerebrai.rate > 0.70 && cerebrai.rate < 0.80 && cerebrai.rate > human.rate, `${cerebrai.rate.toFixed(3)}`);
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check('no branched rung is ever left with zero available techs (Cerebrai roll)', !cerebrai.everEmpty);
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}
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// openResearchChoices: the set of techs at a field's current frontier rung
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// that are actually researchable — 0/1/2/3-way cases, using real data.
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{
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const emp = { known: {}, available: Object.fromEntries(RULES.techList.map((t) => [t.id, true])) };
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const state = { empires: [emp] };
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const e = 0;
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check('a fresh empire has exactly 1 open choice at computers T0 (the free opener)',
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Logic.openResearchChoices(RULES, state, e, 'computers').length === 1);
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for (const t of RULES.techsByField.computers) if (t.tier < 3) emp.known[t.id] = true;
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const twoWay = Logic.openResearchChoices(RULES, state, e, 'computers');
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check('computers T3 (2-way) reports exactly 2 open choices', twoWay.length === 2, `${twoWay.length}`);
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check('the 2-way choices are neuralscanner and tachyoncomputer',
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new Set(twoWay.map((t) => t.id)).size === 2
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&& twoWay.every((t) => ['neuralscanner', 'tachyoncomputer'].includes(t.id)));
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emp.known.neuralscanner = true;
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// The un-picked sibling is still the lowest open tier — it stays the
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// sole (unambiguous) frontier pick even though T4 is also now
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// independently canResearch-true; openResearchChoices only surfaces the
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// minimum tier among candidates, so T4 isn't "seen" until tachyoncomputer
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// itself resolves (known, in this case never force-required).
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const oneLeft = Logic.openResearchChoices(RULES, state, e, 'computers');
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check('the un-picked sibling remains the sole frontier choice after the other is known',
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oneLeft.length === 1 && oneLeft[0].id === 'tachyoncomputer', `${oneLeft.map((t) => t.id)}`);
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emp.known.tachyoncomputer = true;
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const advanced = Logic.openResearchChoices(RULES, state, e, 'computers');
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check('once both T3 siblings are known, T4 becomes the sole frontier choice',
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advanced.length === 1 && advanced[0].id === 'positroniccomputer', `${advanced.map((t) => t.id)}`);
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const emp2 = { known: {}, available: Object.fromEntries(RULES.techList.map((t) => [t.id, true])) };
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const state2 = { empires: [emp2] };
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for (const t of RULES.techsByField.weapons) if (t.tier < 8) emp2.known[t.id] = true;
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const threeWay = Logic.openResearchChoices(RULES, state2, e, 'weapons');
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check('the weapons T8 3-way rung reports exactly 3 open choices', threeWay.length === 3, `${threeWay.length}`);
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const emp3 = { known: {}, available: {} };
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const state3 = { empires: [emp3] };
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check('a field with nothing researchable reports zero open choices',
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Logic.openResearchChoices(RULES, state3, e, 'computers').length === 0);
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}
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// pendingResearchChoices' own filtering predicate (human-owned, source
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// 'research', deduped by field, ambiguous rung only) — exercised directly
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// since the real method lives on the Phaser scene, mirroring its exact
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// filter/dedupe logic against a synthetic event list.
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{
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const emp = { known: {}, available: Object.fromEntries(RULES.techList.map((t) => [t.id, true])) };
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for (const t of RULES.techsByField.computers) if (t.tier < 3) emp.known[t.id] = true;
|
|
const state = { empires: [emp, { known: {}, available: {} }] };
|
|
const humanIdx = 0;
|
|
const notable = [
|
|
{ type: 'techDone', empire: humanIdx, techId: 'optroniccomputer', source: 'research' }, // ambiguous field
|
|
{ type: 'techDone', empire: humanIdx, techId: 'optroniccomputer', source: 'research' }, // duplicate field, should dedupe
|
|
{ type: 'techDone', empire: humanIdx, techId: 'lasercannon', source: 'trade' }, // wrong source
|
|
{ type: 'techDone', empire: 1, techId: 'lasercannon', source: 'research' }, // wrong empire
|
|
{ type: 'contact', empire: humanIdx }, // wrong type
|
|
];
|
|
const pending = [];
|
|
const seen = new Set();
|
|
for (const ev of notable) {
|
|
if (ev.type !== 'techDone' || ev.empire !== humanIdx || ev.source !== 'research') continue;
|
|
const field = RULES.techs[ev.techId].field;
|
|
if (seen.has(field)) continue;
|
|
seen.add(field);
|
|
const choices = Logic.openResearchChoices(RULES, state, humanIdx, field);
|
|
if (choices.length > 1) pending.push({ field, choices, completedTechId: ev.techId });
|
|
}
|
|
check('pendingResearchChoices keeps exactly the one ambiguous human/research field',
|
|
pending.length === 1 && pending[0].field === 'computers', JSON.stringify(pending.map((p) => p.field)));
|
|
check('the surviving entry carries the completed tech id for the prompt copy',
|
|
pending[0].completedTechId === 'optroniccomputer');
|
|
}
|
|
|
|
// Species sanity: at least one clear strength each, and no species is
|
|
// strictly better than another on every axis.
|
|
for (const s of RULES.speciesList) {
|
|
const t = s.traits;
|
|
const good = [t.industryMult > 1, t.researchMult > 1, t.tradeMult > 1, t.growthMult > 1,
|
|
t.shipAttack > 0, t.shipDefense > 0, t.groundAttack > 0, t.espionage > 0,
|
|
t.factoriesPerPop > 2, t.colonizeAnything, t.hostileImmune, t.diplomacy > 0].filter(Boolean).length;
|
|
check(`species ${s.id} has a real strength`, good > 0);
|
|
}
|
|
|
|
// Exactly one species (lithox) is diplomacy-incapable. The Audience screen's
|
|
// Seek Audience button and the audienceVideos roster both key off this exact
|
|
// count, so a silent change here would silently change who gets a working
|
|
// diplomacy screen.
|
|
const incapable = RULES.speciesList.filter((s) => (s.traits.diplomacy ?? 0) <= -100);
|
|
check('exactly one diplomacy-incapable species', incapable.length === 1,
|
|
incapable.map((s) => s.id).join(','));
|
|
check('the diplomacy-incapable species is lithox', incapable[0]?.id === 'lithox');
|
|
}
|
|
|
|
// ---------------------------------------------------------------------------
|
|
section('2. Procedural art');
|
|
// ---------------------------------------------------------------------------
|
|
{
|
|
// A Proxy canvas that records every value the painters push at it. A NaN
|
|
// reaching a real canvas surfaces as an opaque WebGL error far from the
|
|
// mistake, so it is caught here instead.
|
|
const bad = [];
|
|
const num = (where, ...vals) => {
|
|
for (const v of vals) if (typeof v === 'number' && !Number.isFinite(v)) bad.push(where);
|
|
};
|
|
const mkCtx = () => new Proxy({}, {
|
|
get: (_t, prop) => {
|
|
if (prop === 'createLinearGradient' || prop === 'createRadialGradient') {
|
|
return (...args) => { num(String(prop), ...args); return { addColorStop: () => {} }; };
|
|
}
|
|
if (typeof prop === 'string') return (...args) => num(prop, ...args);
|
|
return () => {};
|
|
},
|
|
set: (_t, prop, value) => { num(String(prop), value); return true; },
|
|
});
|
|
const made = new Map();
|
|
const scene = {
|
|
textures: {
|
|
exists: (k) => made.has(k),
|
|
createCanvas(key, w, h) {
|
|
if (!Number.isFinite(w) || !Number.isFinite(h) || w <= 0 || h <= 0) {
|
|
bad.push(`createCanvas(${key}, ${w}, ${h})`);
|
|
}
|
|
const frames = [];
|
|
const tex = {
|
|
width: w, height: h, frames,
|
|
getContext: () => mkCtx(),
|
|
refresh() {},
|
|
add(f, _s, fx, fy, fw, fh) {
|
|
num(`add(${key})`, fx, fy, fw, fh);
|
|
if (fx + fw > w || fy + fh > h) bad.push(`frame ${f} outside ${key}`);
|
|
frames.push(f);
|
|
},
|
|
};
|
|
made.set(key, tex);
|
|
return tex;
|
|
},
|
|
},
|
|
};
|
|
|
|
const { keys, procedural } = ensureSheets(scene, RULES, artJson);
|
|
const sheetNames = Object.keys(artJson.sheets ?? {});
|
|
for (const name of sheetNames) {
|
|
check(`sheet ${name} resolves to a key`, !!keys[name]);
|
|
const tex = made.get(keys[name]);
|
|
check(`sheet ${name} painted a non-empty canvas`, !!tex && tex.width > 0 && tex.height > 0,
|
|
tex ? `${tex.width}x${tex.height}` : 'no texture');
|
|
check(`sheet ${name} registered frames`, !!tex && tex.frames.length > 0);
|
|
}
|
|
check('every sheet fell back to a painted stand-in',
|
|
procedural.length === sheetNames.length, `${procedural.length}/${sheetNames.length}`);
|
|
check('no painter emitted a non-finite value', bad.length === 0,
|
|
[...new Set(bad)].slice(0, 5).join(', '));
|
|
|
|
// Every frame the rules point at must actually have been painted.
|
|
const shipsTex = made.get(keys.ships);
|
|
for (const s of RULES.speciesList) {
|
|
for (const h of RULES.hullList) {
|
|
check(`ship frame ${s.id}/${h.id} painted`,
|
|
shipsTex?.frames.includes(shipFrame(RULES, s.id, h.id)));
|
|
}
|
|
}
|
|
const planetsTex = made.get(keys.planets);
|
|
for (const p of RULES.planetTypeList) {
|
|
check(`planet frame ${p.id} painted`, planetsTex?.frames.includes(planetFrame(RULES, p.id)));
|
|
}
|
|
const techTex = made.get(keys.techicons);
|
|
for (const t of RULES.techList) {
|
|
check(`tech icon ${t.id} painted`, techTex?.frames.includes(techFrame(RULES, t.id)));
|
|
}
|
|
const buildTex = made.get(keys.buildings);
|
|
for (const b of RULES.buildingList) {
|
|
check(`building icon ${b.id} painted`, buildTex?.frames.includes(buildingFrame(RULES, b.id)));
|
|
}
|
|
|
|
// Species portraits are looping videos where one has been recorded and a
|
|
// sheet frame where one has not. The manifest has to name every species so a
|
|
// new one cannot be silently forgotten, and every non-null path has to point
|
|
// at a file that is actually there — otherwise the first sign of a typo is a
|
|
// 404 and a blank portrait in the browser.
|
|
const vids = artJson.portraitVideos ?? {};
|
|
const vidIds = Object.keys(vids).filter((k) => !k.startsWith('_'));
|
|
for (const id of vidIds) {
|
|
check(`portraitVideos entry ${id} is a known species`, !!RULES.species[id]);
|
|
check(`portraitVideos ${id} key matches the loader's key`,
|
|
vids[id].key === speciesVideoKey(id), `${vids[id].key} vs ${speciesVideoKey(id)}`);
|
|
if (vids[id].path) {
|
|
check(`portraitVideos ${id} file exists`, existsSync(join(root, vids[id].path)), vids[id].path);
|
|
check(`portraitVideos ${id} is an mp4`, vids[id].path.endsWith('.mp4'));
|
|
}
|
|
}
|
|
for (const s of RULES.speciesList) {
|
|
check(`species ${s.id} has a portraitVideos entry`, vidIds.includes(s.id));
|
|
// Whether or not it has a video, the sheet fallback must exist for it.
|
|
const portraitsTex = made.get(keys.portraits);
|
|
check(`species ${s.id} has a portrait fallback frame`,
|
|
portraitsTex?.frames.includes(s.portraitFrame));
|
|
}
|
|
// The still-portrait tier, checked the same way. Its filenames are NOT
|
|
// derived from the species id — one of them is spelled differently on disk —
|
|
// so the path in the manifest is the only source of truth and has to be
|
|
// confirmed against the filesystem.
|
|
const stills = artJson.portraitStills ?? {};
|
|
const stillIds = Object.keys(stills).filter((k) => !k.startsWith('_'));
|
|
for (const id of stillIds) {
|
|
check(`portraitStills entry ${id} is a known species`, !!RULES.species[id]);
|
|
check(`portraitStills ${id} key matches the loader's key`,
|
|
stills[id].key === speciesStillKey(id), `${stills[id].key} vs ${speciesStillKey(id)}`);
|
|
if (stills[id].path) {
|
|
check(`portraitStills ${id} file exists`, existsSync(join(root, stills[id].path)), stills[id].path);
|
|
}
|
|
}
|
|
for (const s of RULES.speciesList) {
|
|
check(`species ${s.id} has a portraitStills entry`, stillIds.includes(s.id));
|
|
}
|
|
|
|
// Ship commander videos, one per species PER HULL. Unlike the three blocks
|
|
// above, an absent entry here is not a defect — it falls back to that
|
|
// species' own portrait video, which is why nine of the ten species are a
|
|
// single `null`. So the count below is reported rather than asserted, and
|
|
// what IS asserted is that nothing declared is wrong: a key that does not
|
|
// match shipVideoKey() loads a video nothing will ever ask for, and is
|
|
// exactly the mistake the colonyship/`ship-human-colony.mp4` filename
|
|
// mismatch invites.
|
|
const shipVids = artJson.shipVideos ?? {};
|
|
const shipVidSpecies = Object.keys(shipVids).filter((k) => !k.startsWith('_'));
|
|
let shipClips = 0;
|
|
for (const id of shipVidSpecies) {
|
|
check(`shipVideos entry ${id} is a known species`, !!RULES.species[id]);
|
|
const hulls = shipVids[id];
|
|
if (!hulls) continue;
|
|
for (const hullId of Object.keys(hulls).filter((k) => !k.startsWith('_'))) {
|
|
const v = hulls[hullId];
|
|
check(`shipVideos ${id}.${hullId} is a known hull`, !!RULES.hulls[hullId]);
|
|
check(`shipVideos ${id}.${hullId} key matches the loader's key`,
|
|
v?.key === shipVideoKey(id, hullId), `${v?.key} vs ${shipVideoKey(id, hullId)}`);
|
|
if (v?.path) {
|
|
shipClips += 1;
|
|
check(`shipVideos ${id}.${hullId} file exists`,
|
|
existsSync(join(root, v.path)), v.path);
|
|
check(`shipVideos ${id}.${hullId} is an mp4`, v.path.endsWith('.mp4'));
|
|
}
|
|
}
|
|
}
|
|
for (const s of RULES.speciesList) {
|
|
// Declared-or-null, so adding a species cannot silently skip the question.
|
|
check(`species ${s.id} has a shipVideos entry (possibly null)`,
|
|
shipVidSpecies.includes(s.id));
|
|
// The fallback the gaps rely on. Without it a missing clip is a hole.
|
|
check(`species ${s.id} has a shipVideos fallback portrait`, !!vids[s.id]?.path);
|
|
}
|
|
console.log(` (${shipClips}/${RULES.speciesList.length * RULES.hullList.length} `
|
|
+ 'ship commander clips recorded; the rest fall back to the species portrait)');
|
|
|
|
// poptransport's commander clip is deliberately aliased to the colony
|
|
// ship's (VegaShipMedia.js) — same picture as the Troop Transport, but the
|
|
// "settlement run" video. hasShipVideo() takes a scene as a plain
|
|
// duck-typed parameter (no Phaser import in that module), so the alias is
|
|
// checkable here with a stub rather than needing a browser.
|
|
{
|
|
const stubScene = (cachedKeys) => ({ cache: { video: { exists: (k) => cachedKeys.has(k) } } });
|
|
const withColonyClip = stubScene(new Set([shipVideoKey('human', 'colonyship')]));
|
|
check('poptransport resolves to a video when the species has a colony-ship clip',
|
|
hasShipVideo(withColonyClip, 'human', 'poptransport'));
|
|
const withoutAnyClip = stubScene(new Set());
|
|
check('poptransport reports no video when the colony-ship clip is absent too',
|
|
!hasShipVideo(withoutAnyClip, 'human', 'poptransport'));
|
|
// A clip filed under poptransport's OWN key must NOT be what satisfies
|
|
// this — the alias means only the colony ship's key is ever consulted,
|
|
// and one under poptransport's own name is never expected to exist.
|
|
const onlyOwnKey = stubScene(new Set([shipVideoKey('human', 'poptransport')]));
|
|
check('the alias looks at the colony ship\'s key, not poptransport\'s own',
|
|
!hasShipVideo(onlyOwnKey, 'human', 'poptransport'));
|
|
}
|
|
|
|
// Audience-screen mood clips: species -> {angry, neutral, happy}. Lithox
|
|
// (diplomacy-incapable) must have NO entry at all — canNegotiate() is
|
|
// permanently false for them, so the Audience screen never opens for that
|
|
// species and a clip would never play. Every OTHER present entry must have
|
|
// all three moods, unlike shipVideos' per-hull gaps: a missing mood should
|
|
// be an explicit "whole species is null" decision, not a silently absent key.
|
|
const audVids = artJson.audienceVideos ?? {};
|
|
const audVidSpecies = Object.keys(audVids).filter((k) => !k.startsWith('_'));
|
|
let audClips = 0;
|
|
check('audienceVideos has no lithox entry', !audVidSpecies.includes('lithox'));
|
|
for (const id of audVidSpecies) {
|
|
check(`audienceVideos entry ${id} is a known species`, !!RULES.species[id]);
|
|
check(`audienceVideos entry ${id} is diplomacy-capable`,
|
|
(RULES.species[id]?.traits.diplomacy ?? 0) > -100);
|
|
const moods = audVids[id];
|
|
if (!moods) continue;
|
|
for (const mood of ['angry', 'neutral', 'happy']) {
|
|
const v = moods[mood];
|
|
check(`audienceVideos ${id}.${mood} is present`, !!v, `species ${id} declared but missing ${mood}`);
|
|
if (!v) continue;
|
|
check(`audienceVideos ${id}.${mood} key matches the loader's key`,
|
|
v.key === audienceVideoKey(id, mood), `${v.key} vs ${audienceVideoKey(id, mood)}`);
|
|
if (v.path) {
|
|
audClips += 1;
|
|
check(`audienceVideos ${id}.${mood} file exists`, existsSync(join(root, v.path)), v.path);
|
|
check(`audienceVideos ${id}.${mood} is an mp4`, v.path.endsWith('.mp4'));
|
|
}
|
|
}
|
|
}
|
|
for (const s of RULES.speciesList.filter((sp) => (sp.traits.diplomacy ?? 0) > -100)) {
|
|
check(`diplomacy-capable species ${s.id} has an audienceVideos entry (possibly null)`,
|
|
audVidSpecies.includes(s.id));
|
|
}
|
|
console.log(` (${audClips}/${audVidSpecies.filter((id) => audVids[id]).length * 3} `
|
|
+ 'audience mood clips recorded; the rest fall back to the species portrait)');
|
|
|
|
// Every species x hull must land inside the declared `ships` grid, or a row
|
|
// of the fleet panel draws a frame that does not exist.
|
|
const shipSheet = artJson.sheets?.ships;
|
|
const shipCells = (shipSheet?.cols ?? 0) * (shipSheet?.rows ?? 0);
|
|
for (const s of RULES.speciesList) {
|
|
for (const h of RULES.hullList) {
|
|
const f = shipFrame(RULES, s.id, h.id);
|
|
check(`shipFrame ${s.id}/${h.id} is inside the ships sheet`,
|
|
f >= 0 && f < shipCells, `${f} of ${shipCells}`);
|
|
}
|
|
}
|
|
|
|
// World backdrops for the colony screen. These are 1920x1080 opaque images,
|
|
// NOT frames on the `planets` sheet — that one holds transparent 192px discs
|
|
// for the orrery, which is a different picture of the same world. Same
|
|
// drop-in contract as the portraits: every type must be declared so a new one
|
|
// cannot be silently forgotten, a null path is a legitimate "not painted yet"
|
|
// that falls back to a gradient, and any path that IS set must resolve.
|
|
const worlds = artJson.worldBackgrounds ?? {};
|
|
const worldIds = Object.keys(worlds).filter((k) => !k.startsWith('_'));
|
|
for (const id of worldIds) {
|
|
check(`worldBackgrounds entry ${id} is a known planet type`, !!RULES.planetTypes[id]);
|
|
check(`worldBackgrounds ${id} key matches the loader's key`,
|
|
worlds[id].key === worldBgKey(id), `${worlds[id].key} vs ${worldBgKey(id)}`);
|
|
if (worlds[id].path) {
|
|
check(`worldBackgrounds ${id} file exists`, existsSync(join(root, worlds[id].path)),
|
|
worlds[id].path);
|
|
}
|
|
}
|
|
for (const p of RULES.planetTypeList) {
|
|
check(`planet type ${p.id} has a worldBackgrounds entry`, worldIds.includes(p.id));
|
|
}
|
|
const worldsPainted = worldIds.filter((id) => worlds[id].path).length;
|
|
const colonisablePainted = RULES.planetTypeList
|
|
.filter((p) => p.colonizable && worlds[p.id]?.path).length;
|
|
const colonisableTotal = RULES.planetTypeList.filter((p) => p.colonizable).length;
|
|
console.log(` (${worldsPainted}/${worldIds.length} world backdrops painted; `
|
|
+ `${colonisablePainted}/${colonisableTotal} of the colonisable types)`);
|
|
|
|
// Colony-founding vignettes, one per COLONISABLE planet type. A type with no
|
|
// clip falls back to the backdrop still, so a gap is legal — but a clip for a
|
|
// world that can never be settled is dead weight nothing will ever play, and
|
|
// a key that does not match colonyVideoKey() loads a video the vignette will
|
|
// never find. Both are asserted; the roster count is only reported.
|
|
const colVids = artJson.colonyVideos ?? {};
|
|
const colVidIds = Object.keys(colVids).filter((k) => !k.startsWith('_'));
|
|
for (const id of colVidIds) {
|
|
check(`colonyVideos entry ${id} is a known planet type`, !!RULES.planetTypes[id]);
|
|
check(`colonyVideos ${id} is a colonisable type`, !!RULES.planetTypes[id]?.colonizable);
|
|
check(`colonyVideos ${id} key matches the loader's key`,
|
|
colVids[id]?.key === colonyVideoKey(id), `${colVids[id]?.key} vs ${colonyVideoKey(id)}`);
|
|
if (colVids[id]?.path) {
|
|
check(`colonyVideos ${id} file exists`, existsSync(join(root, colVids[id].path)),
|
|
colVids[id].path);
|
|
check(`colonyVideos ${id} is an mp4`, colVids[id].path.endsWith('.mp4'));
|
|
}
|
|
}
|
|
for (const p of RULES.planetTypeList.filter((t) => t.colonizable)) {
|
|
// Not a hard requirement — but every gap must still have the still-image
|
|
// fallback the vignette drops to, or founding a colony there is a gradient.
|
|
if (!colVidIds.includes(p.id)) {
|
|
check(`colonisable type ${p.id} without a colony clip has a backdrop to fall back on`,
|
|
!!worlds[p.id]?.path, p.id);
|
|
}
|
|
}
|
|
const colClips = colVidIds.filter((id) => colVids[id]?.path).length;
|
|
console.log(` (${colClips}/${colonisableTotal} colony-founding clips recorded; `
|
|
+ 'the rest fall back to the world backdrop)');
|
|
|
|
// …and they must stay OUT of the eager manifest. The whole set is ~19 MB for
|
|
// clips a game barely touches, so VegaColonyIntro.ensureColonyVideo() fetches
|
|
// one on demand. Resolving the block here again would quietly put all of it
|
|
// back on the game-room load, which nothing else would notice.
|
|
// assetManifest.js is dependency-free, so the real resolver runs headlessly
|
|
// against a cache stub.
|
|
{
|
|
const stub = { cache: { json: { get: (k) => (k === 'mastervega-artwork' ? artJson : null) } } };
|
|
const eager = resolveGameAssets(stub, 'mastervega');
|
|
const eagerColony = eager.filter((d) => d.type === 'video' && d.key.startsWith('vega-colony-'));
|
|
check('colony-founding clips are not eager-loaded', eagerColony.length === 0,
|
|
eagerColony.map((d) => d.key).join(' '));
|
|
// Same reasoning as colonyVideos: 27 potential clips is a speculative
|
|
// payload most playthroughs only partly touch, and checkContactAt marking
|
|
// a fresh human contact is just as strong an "about to be needed" signal
|
|
// as a colony ship parking over a settleable world.
|
|
const eagerAudience = eager.filter((d) => d.type === 'video' && d.key.startsWith('vega-audience-'));
|
|
check('audience mood clips are not eager-loaded', eagerAudience.length === 0,
|
|
eagerAudience.map((d) => d.key).join(' '));
|
|
// The cue is the opposite case: small, and it has to be ready the instant
|
|
// the vignette opens.
|
|
check('the colony-founding cue IS eager-loaded',
|
|
eager.some((d) => d.type === 'audio' && d.key === 'vega-colony-cue'));
|
|
// Nothing else lost its ride while that was being arranged.
|
|
check('species portraits are still eager-loaded',
|
|
eager.some((d) => d.type === 'video' && d.key === speciesVideoKey('human')));
|
|
check('ship commander clips are still eager-loaded',
|
|
eager.some((d) => d.type === 'video' && d.key === shipVideoKey('human', 'scout')));
|
|
}
|
|
|
|
// sourceWidth() — the guard every video in this game is scaled through.
|
|
//
|
|
// A Phaser Video carries a placeholder 256x256 size until its first frame
|
|
// decodes, so the obvious `obj.width || SRC` never fires and divides by 256.
|
|
// That is invisible while every clip IS 256 px (placeholder and fallback
|
|
// agree) and is exactly what opened the 960x544 colony clips at 2.5x. Pure
|
|
// function, so the distinction is assertable here rather than in a browser.
|
|
{
|
|
const undecoded = { type: 'Video', videoTexture: null, width: 256 };
|
|
const decoded = { type: 'Video', videoTexture: {}, width: 960 };
|
|
check('sourceWidth ignores an undecoded Video\'s placeholder width',
|
|
sourceWidth(undecoded, 960) === 960, `${sourceWidth(undecoded, 960)}`);
|
|
check('sourceWidth trusts a decoded Video',
|
|
sourceWidth(decoded, 256) === 960, `${sourceWidth(decoded, 256)}`);
|
|
check('sourceWidth trusts an Image outright',
|
|
sourceWidth({ type: 'Image', width: 192 }, 256) === 192);
|
|
check('sourceWidth still falls back on a zero width',
|
|
sourceWidth({ type: 'Image', width: 0 }, 256) === 256);
|
|
// The scale the vignette actually sets, both ways round: a 640px window on
|
|
// a 960px clip is 0.667, and never the 2.5 the placeholder would give.
|
|
check('a 640px clip window scales a 960px clip by 2/3',
|
|
Math.abs(640 / sourceWidth(undecoded, 960) - 0.6667) < 0.001);
|
|
}
|
|
|
|
// The just-in-time loader reads its path straight out of the artwork JSON
|
|
// rather than a descriptor, so the two must agree on where a clip lives.
|
|
for (const id of colVidIds) {
|
|
if (!colVids[id]?.path) continue;
|
|
check(`colonyVideos ${id} path is under the vega video folder`,
|
|
colVids[id].path.startsWith('assets/videos/vega/'), colVids[id].path);
|
|
}
|
|
|
|
// The founding cue the vignette ducks the soundtrack for. Declared in the
|
|
// asset manifest rather than the artwork JSON, so this is the only place the
|
|
// path gets checked.
|
|
check('colony-founding cue exists',
|
|
existsSync(join(root, 'assets/music/vega/colony.mp3')), 'assets/music/vega/colony.mp3');
|
|
|
|
const recorded = vidIds.filter((id) => vids[id].path).length;
|
|
const stillCount = stillIds.filter((id) => stills[id].path).length;
|
|
console.log(` (${recorded}/${RULES.speciesList.length} portraits are video, `
|
|
+ `${stillCount} have a still; the rest fall back to the painted sheet)`);
|
|
|
|
// Species speech. Unlike the portraits this is NOT declared in the artwork
|
|
// manifest — ui/SpeechQueue.js streams it straight from
|
|
// assets/speech/<clip>.mp3 without going through Phaser's loader — so the
|
|
// filename convention itself is the contract, and this is the only place it
|
|
// gets enforced.
|
|
for (const sp of RULES.speciesList) {
|
|
const clip = speciesSpeechClip(sp.id);
|
|
check(`species ${sp.id} speech clip exists`,
|
|
existsSync(join(root, 'assets/speech', `${clip}.mp3`)), `${clip}.mp3`);
|
|
}
|
|
|
|
for (const [name, clip] of Object.entries(UI_SPEECH)) {
|
|
check(`UI speech clip ${name} exists`,
|
|
existsSync(join(root, 'assets/speech', `${clip}.mp3`)), `${clip}.mp3`);
|
|
}
|
|
|
|
// Soundtrack: every track the JSON names must be on disk, or the game boots
|
|
// into silence with a console error and nothing says why. Structure is
|
|
// per-category (VegaMusic.js's _poolFor reads d.fallback/d.menu/d.peace/
|
|
// d.combat/d.diplomacy.default/d.diplomacy.bySpecies[id], each a
|
|
// { volume?, tracks: [...] } pool) — not one flat top-level `tracks` array.
|
|
const music = JSON.parse(readFileSync(join(root, 'data/masterofvega-music.json'), 'utf8'));
|
|
const musicPools = [
|
|
['fallback', music.fallback], ['menu', music.menu], ['peace', music.peace], ['combat', music.combat],
|
|
['diplomacy.default', music.diplomacy?.default],
|
|
...Object.entries(music.diplomacy?.bySpecies ?? {}).map(([id, pool]) => [`diplomacy.bySpecies.${id}`, pool]),
|
|
];
|
|
check('soundtrack declares at least one track pool with tracks',
|
|
musicPools.some(([, pool]) => Array.isArray(pool?.tracks) && pool.tracks.length > 0));
|
|
// Every other pool falls back to this one when empty (_poolFor), so an
|
|
// empty fallback means the game can still boot into total silence.
|
|
check('soundtrack fallback pool has tracks',
|
|
Array.isArray(music.fallback?.tracks) && music.fallback.tracks.length > 0);
|
|
for (const [poolName, pool] of musicPools) {
|
|
for (const t of pool?.tracks ?? []) {
|
|
check(`soundtrack ${poolName} file ${t.file} exists`, existsSync(join(root, 'assets/music', t.file)), t.file);
|
|
check(`soundtrack ${poolName} ${t.file} has artist and title`, !!t.artist && !!t.title);
|
|
}
|
|
if (typeof pool?.volume === 'number') {
|
|
check(`soundtrack ${poolName} volume in range`, pool.volume > 0 && pool.volume <= 1, `${pool.volume}`);
|
|
}
|
|
}
|
|
|
|
// Same "not eager-loaded" contract as the colony/audience video clips
|
|
// above: a given playthrough may contact only a handful of the game's nine
|
|
// species, if any, so assetManifest.js's vegaMusicFrom() must not resolve
|
|
// diplomacy.bySpecies at game-room entry — VegaMusic's own on-demand
|
|
// `new Audio(...)` at setDiplomacy() time is the actual fetch.
|
|
{
|
|
const stub = { cache: { json: { get: (k) => (k === 'masterofvega-music' ? music : null) } } };
|
|
const eagerMusic = resolveGameAssets(stub, 'mastervega').filter((d) => d.type === 'audio');
|
|
check('diplomacy bySpecies tracks are not eager-loaded',
|
|
!eagerMusic.some((d) => d.key.includes('-diplomacy-') && !d.key.includes('-diplomacy-default-')),
|
|
eagerMusic.map((d) => d.key).join(' '));
|
|
check('the diplomacy default pool is still eager-loaded',
|
|
eagerMusic.some((d) => d.key.includes('-diplomacy-default-')));
|
|
check('fallback/menu/peace/combat pools are still eager-loaded',
|
|
['fallback', 'menu', 'peace', 'combat'].every((p) => eagerMusic.some((d) => d.key.includes(`-${p}-`))));
|
|
}
|
|
}
|
|
|
|
// ---------------------------------------------------------------------------
|
|
section('3. Galaxy generation');
|
|
// ---------------------------------------------------------------------------
|
|
{
|
|
const shapes = RULES.galaxyShapeList.map((s) => s.id);
|
|
const sizes = RULES.galaxySizeList.map((s) => s.id);
|
|
const allSpecies = RULES.speciesList.map((s) => s.id);
|
|
|
|
for (const shapeId of shapes) {
|
|
for (const sizeId of sizes) {
|
|
const size = RULES.galaxySizes[sizeId];
|
|
const speciesIds = allSpecies.slice(0, size.maxEmpires);
|
|
const g = generateGalaxy(RULES, { sizeId, shapeId, seed: 99, speciesIds });
|
|
|
|
check(`${shapeId}/${sizeId} star count`, g.stars.length === size.stars,
|
|
`${g.stars.length} of ${size.stars}`);
|
|
check(`${shapeId}/${sizeId} lane graph connected`, isConnected(g.stars, g.adj));
|
|
check(`${shapeId}/${sizeId} stars inside bounds`,
|
|
g.stars.every((s) => s.x >= 0 && s.y >= 0 && s.x <= g.width && s.y <= g.height));
|
|
check(`${shapeId}/${sizeId} star names unique`,
|
|
new Set(g.stars.map((s) => s.name)).size === g.stars.length);
|
|
check(`${shapeId}/${sizeId} one homeworld per empire`,
|
|
new Set(g.homeIdx).size === speciesIds.length);
|
|
|
|
// Each empire must start on its own species' native world.
|
|
speciesIds.forEach((sid, e) => {
|
|
const home = g.stars[g.homeIdx[e]];
|
|
check(`${shapeId}/${sizeId} ${sid} starts on its homeworld type`,
|
|
home.planets[0]?.typeId === RULES.species[sid].homeworld);
|
|
check(`${shapeId}/${sizeId} ${sid} homeworld is habitable for it`,
|
|
RULES.planetTypes[home.planets[0].typeId].colonizable);
|
|
});
|
|
|
|
// Fairness: no empire may start meaningfully closer to a rival than the
|
|
// rest — that decides the game before turn one.
|
|
if (speciesIds.length > 1) {
|
|
const nearest = g.homeIdx.map((a, i) => Math.min(
|
|
...g.homeIdx.filter((_, j) => j !== i).map((b) => parsecs(g, a, b)),
|
|
));
|
|
const spread = Math.max(...nearest) / Math.max(0.001, Math.min(...nearest));
|
|
check(`${shapeId}/${sizeId} homeworld spacing fair`, spread < 3.2, `spread ${spread.toFixed(2)}`);
|
|
}
|
|
|
|
// Opening range must reach something worth settling.
|
|
const openRange = RULES.economy.baseFuelRange + 1.5;
|
|
for (let e = 0; e < speciesIds.length; e += 1) {
|
|
let open = 0;
|
|
for (let i = 0; i < g.stars.length; i += 1) {
|
|
if (i === g.homeIdx[e]) continue;
|
|
if (parsecs(g, g.homeIdx[e], i) > openRange) continue;
|
|
open += g.stars[i].planets.filter((p) => RULES.planetTypes[p.typeId].hostility === 0
|
|
&& RULES.planetTypes[p.typeId].colonizable).length;
|
|
}
|
|
check(`${shapeId}/${sizeId} empire ${e} has room to expand`, open >= 2, `${open} open worlds`);
|
|
}
|
|
}
|
|
}
|
|
|
|
// Determinism.
|
|
const a = generateGalaxy(RULES, { sizeId: 'medium', shapeId: 'spiral', seed: 4242, speciesIds: ['human', 'kkrix', 'lithox'] });
|
|
const b = generateGalaxy(RULES, { sizeId: 'medium', shapeId: 'spiral', seed: 4242, speciesIds: ['human', 'kkrix', 'lithox'] });
|
|
check('galaxy generation is deterministic', JSON.stringify(a) === JSON.stringify(b));
|
|
const c = generateGalaxy(RULES, { sizeId: 'medium', shapeId: 'spiral', seed: 4243, speciesIds: ['human', 'kkrix', 'lithox'] });
|
|
check('a different seed gives a different galaxy', JSON.stringify(a) !== JSON.stringify(c));
|
|
|
|
check('too many empires for the galaxy is rejected', (() => {
|
|
try {
|
|
generateGalaxy(RULES, { sizeId: 'small', shapeId: 'spiral', seed: 1, speciesIds: RULES.speciesList.map((s) => s.id) });
|
|
return false;
|
|
} catch (err) { return true; }
|
|
})());
|
|
}
|
|
|
|
// ---------------------------------------------------------------------------
|
|
section('3b. Star-map zoom');
|
|
// ---------------------------------------------------------------------------
|
|
{
|
|
const VIEW_W = 1920;
|
|
const VIEW_H = 1080;
|
|
for (const size of RULES.galaxySizeList) {
|
|
const ladder = buildZoomLadder(size.width, size.height);
|
|
check(`${size.id} ladder is non-empty`, ladder.length > 0);
|
|
check(`${size.id} ladder ascends`, ladder.every((z, i) => i === 0 || z > ladder[i - 1]),
|
|
ladder.map((z) => z.toFixed(3)).join(' '));
|
|
|
|
// The point of the whole exercise: at NO step may the galaxy fail to fill
|
|
// the screen, or the player can pull back past the edge of the map into
|
|
// empty space.
|
|
for (const z of ladder) {
|
|
check(`${size.id} zoom ${z.toFixed(3)} covers the viewport`,
|
|
size.width * z >= VIEW_W - 1e-6 && size.height * z >= VIEW_H - 1e-6,
|
|
`${Math.round(size.width * z)}x${Math.round(size.height * z)} vs ${VIEW_W}x${VIEW_H}`);
|
|
}
|
|
// The bottom rung must be exactly the covering zoom — any higher and the
|
|
// player cannot see the whole galaxy at once.
|
|
check(`${size.id} bottom rung is the covering zoom`,
|
|
Math.abs(ladder[0] - minZoomFor(size.width, size.height)) < 1e-9);
|
|
check(`${size.id} top rung reaches close inspection`,
|
|
Math.abs(ladder[ladder.length - 1] - MAX_ZOOM) < 1e-9 || ladder.length === 1);
|
|
check(`${size.id} default zoom index is in range`, DEFAULT_ZOOM_INDEX < ladder.length
|
|
|| ladder.length === 1);
|
|
}
|
|
|
|
// A galaxy so small that covering it is already past the close-inspection
|
|
// zoom collapses to one fixed step rather than an inverted ladder.
|
|
const tiny = buildZoomLadder(600, 400);
|
|
check('a tiny galaxy collapses to a single zoom step', tiny.length === 1);
|
|
check('a tiny galaxy still covers the viewport',
|
|
600 * tiny[0] >= VIEW_W - 1e-6 && 400 * tiny[0] >= VIEW_H - 1e-6);
|
|
}
|
|
|
|
// ---------------------------------------------------------------------------
|
|
section('4. Ship Marks');
|
|
// ---------------------------------------------------------------------------
|
|
{
|
|
// Learn the whole tree tier by tier and assert a refit never makes a ship
|
|
// worse. This is the property the knapsack loadout exists to guarantee: with
|
|
// preset hulls and no designer, the Mark is the ONLY way research shows up in
|
|
// the fleet, so a regression here makes the tech tree feel inert.
|
|
const known = {};
|
|
const order = [];
|
|
for (let tier = 0; tier < 10; tier += 1) {
|
|
for (const f of Object.keys(RULES.techFields)) {
|
|
const t = RULES.techsByField[f].find((x) => x.tier === tier);
|
|
if (t) order.push(t);
|
|
}
|
|
}
|
|
const hulls = ['frigate', 'destroyer', 'cruiser', 'battleship', 'starbase'];
|
|
let prev = null;
|
|
let drops = 0;
|
|
let nan = 0;
|
|
let hadMissiles = false;
|
|
for (const t of order) {
|
|
known[t.id] = true;
|
|
// Learning the FIRST missile tech reserves part of every large hull for
|
|
// missile racks (see MISSILE_SHARE in VegaShips), which trades a little
|
|
// sustained beam damage for an opening salvo. That is a deliberate
|
|
// one-time step down and the only sanctioned exception; it happens on the
|
|
// second rung of the weapons tree, long before it could matter. Every
|
|
// other transition must be non-decreasing.
|
|
const nowHasMissiles = Ships.bestComponents(RULES, known).missiles.length > 0;
|
|
const missileTransition = nowHasMissiles && !hadMissiles;
|
|
hadMissiles = nowHasMissiles;
|
|
|
|
const now = {};
|
|
for (const h of hulls) {
|
|
const d = Ships.designFor(RULES, known, h, RULES.species.human.traits);
|
|
now[h] = d;
|
|
for (const v of Object.values(d)) {
|
|
if (typeof v === 'number' && !Number.isFinite(v)) { nan += 1; }
|
|
}
|
|
if (prev && !missileTransition) {
|
|
if (d.damage < prev[h].damage - 1e-6) drops += 1;
|
|
if (d.hp < prev[h].hp) drops += 1;
|
|
}
|
|
}
|
|
prev = now;
|
|
}
|
|
check('no ship stat regresses as tech is learned', drops === 0, `${drops} regressions`);
|
|
check('the missile-share transition was actually exercised', hadMissiles);
|
|
check('no design produced a non-finite stat', nan === 0);
|
|
|
|
const full = Ships.designFor(RULES, known, 'battleship', RULES.species.human.traits);
|
|
check('a fully teched hull reaches Mark VII', full.mark === Ships.MAX_MARK, `Mark ${full.mark}`);
|
|
check('a fully teched warship mounts weapons', full.mounts.length > 0);
|
|
check('warships carry both beams and missiles across the game',
|
|
order.some(() => true) && full.mounts.some((m) => m.weapon.kind === 'beam'));
|
|
|
|
// Every warship must still have a beam — an all-missile ship empties its
|
|
// racks and then cannot fight at all.
|
|
const mid = {};
|
|
for (const t of RULES.techList) if (t.tier <= 6) mid[t.id] = true;
|
|
for (const h of ['destroyer', 'cruiser', 'battleship']) {
|
|
const d = Ships.designFor(RULES, mid, h, RULES.species.human.traits);
|
|
check(`${h} keeps a sustained beam battery`, d.beamDamage > 0, `beam ${d.beamDamage}`);
|
|
}
|
|
|
|
// Unarmed hulls stay unarmed; immobile hulls stay immobile.
|
|
const scout = Ships.designFor(RULES, known, 'scout', RULES.species.human.traits);
|
|
check('scout is unarmed', scout.mounts.length === 0 && scout.damage === 0);
|
|
check('scout outranges a warship', scout.range > full.range);
|
|
const base = Ships.designFor(RULES, known, 'starbase', RULES.species.human.traits);
|
|
check('star base is immobile', base.immobile && base.speed === 0);
|
|
|
|
check('refit costs something and is finite', (() => {
|
|
const c = Ships.refitCost(RULES, known, 'cruiser', 1, RULES.species.human.traits);
|
|
return Number.isFinite(c) && c > 0;
|
|
})());
|
|
check('refitting to the same Mark is free',
|
|
Ships.refitCost(RULES, known, 'cruiser', Ships.MAX_MARK, RULES.species.human.traits) === 0);
|
|
}
|
|
|
|
// ---------------------------------------------------------------------------
|
|
section('4b. Fleet orders and detachments');
|
|
// ---------------------------------------------------------------------------
|
|
{
|
|
// The star map's command panel gives orders through sendDetachment: the ships
|
|
// the player dialled in depart, the rest stay behind. Ships are the one thing
|
|
// in the game that cannot be conjured or lost silently, so every path here is
|
|
// checked for conservation as well as for doing the right thing.
|
|
const mk = () => {
|
|
const st = Logic.createGame(RULES, {
|
|
sizeId: 'medium', shapeId: 'spiral', seed: 77, difficultyId: 'normal',
|
|
speciesIds: ['human', 'kkrix', 'lithox'], humanIndex: 0,
|
|
});
|
|
st.rules = RULES;
|
|
// addFleet MERGES into an existing fleet at the same star, so the starting
|
|
// fleet has to go or every case below is really testing "starting fleet
|
|
// plus mine" and the counts stop meaning anything.
|
|
st.fleets = [];
|
|
return st;
|
|
};
|
|
const countShips = (st, e) => Logic.empireFleets(st, e)
|
|
.reduce((t, f) => t + f.ships.reduce((n, s) => n + s.count, 0), 0);
|
|
// A star this empire can actually reach, other than the one it is sitting on.
|
|
const targetFor = (st, fleet) => Object.keys(Logic.reachableStars(RULES, st, fleet.empireIdx))
|
|
.map(Number).find((i) => i !== fleet.starIdx);
|
|
|
|
{
|
|
const st = mk();
|
|
const home = st.galaxy.homeIdx[0];
|
|
const fleet = Logic.addFleet(RULES, st, 0, home,
|
|
[{ hullId: 'frigate', mark: 1, count: 4 }, { hullId: 'scout', mark: 1, count: 2 }]);
|
|
const before = countShips(st, 0);
|
|
const to = targetFor(st, fleet);
|
|
|
|
// ETA is asked BEFORE the order is given, and must react to the selection:
|
|
// a scout is faster than a frigate, so sending scouts alone is never slower.
|
|
const etaAll = Logic.etaTo(RULES, st, fleet, to);
|
|
const etaScouts = Logic.etaTo(RULES, st, fleet, to, [{ hullId: 'scout', mark: 1, count: 2 }]);
|
|
check('pre-order ETA is a positive whole number of turns',
|
|
Number.isInteger(etaAll) && etaAll >= 1, `${etaAll}`);
|
|
check('a faster detachment never arrives later than the whole fleet',
|
|
etaScouts <= etaAll, `${etaScouts} vs ${etaAll}`);
|
|
check('ETA to the star you are already at is zero',
|
|
Logic.etaTo(RULES, st, fleet, fleet.starIdx) === 0);
|
|
|
|
const sent = Logic.sendDetachment(RULES, st, fleet, to, [{ hullId: 'scout', mark: 1, count: 2 }]);
|
|
check('a detachment departs', !!sent && sent.toStar === to);
|
|
check('the detachment is a NEW fleet', sent !== fleet);
|
|
check('the detachment carries exactly what was asked for',
|
|
sent.ships.length === 1 && sent.ships[0].hullId === 'scout' && sent.ships[0].count === 2);
|
|
check('the rest of the fleet stays put', fleet.starIdx === home && fleet.toStar < 0);
|
|
check('the parent fleet keeps the ships that were left behind',
|
|
fleet.ships.reduce((t, s) => t + s.count, 0) === 4);
|
|
check('splitting conserves ships', countShips(st, 0) === before, `${countShips(st, 0)} vs ${before}`);
|
|
check('the committed ETA matches the one the panel quoted',
|
|
Logic.fleetEta(RULES, st, sent) === etaScouts,
|
|
`${Logic.fleetEta(RULES, st, sent)} vs ${etaScouts}`);
|
|
}
|
|
|
|
{
|
|
// Selecting everything is a plain move — no stray empty fleet left behind.
|
|
const st = mk();
|
|
const home = st.galaxy.homeIdx[0];
|
|
const fleet = Logic.addFleet(RULES, st, 0, home, [{ hullId: 'frigate', mark: 1, count: 3 }]);
|
|
const fleetsBefore = st.fleets.length;
|
|
const to = targetFor(st, fleet);
|
|
const sent = Logic.sendDetachment(RULES, st, fleet, to, [{ hullId: 'frigate', mark: 1, count: 3 }]);
|
|
check('selecting the whole fleet moves that fleet itself', sent === fleet);
|
|
check('a whole-fleet move creates no extra fleet', st.fleets.length === fleetsBefore);
|
|
}
|
|
|
|
{
|
|
// Refusals must be total: a rejected order leaves the fleet untouched
|
|
// rather than carved in two with the pieces going nowhere.
|
|
const st = mk();
|
|
const home = st.galaxy.homeIdx[0];
|
|
const fleet = Logic.addFleet(RULES, st, 0, home, [{ hullId: 'frigate', mark: 1, count: 3 }]);
|
|
const before = countShips(st, 0);
|
|
const fleetsBefore = st.fleets.length;
|
|
const reach = Logic.reachableStars(RULES, st, 0);
|
|
const far = st.galaxy.stars.findIndex((s) => !reach[s.idx]);
|
|
if (far >= 0) {
|
|
check('an out-of-range order is refused',
|
|
Logic.sendDetachment(RULES, st, fleet, far, [{ hullId: 'frigate', mark: 1, count: 1 }]) === null);
|
|
check('a refused order leaves the fleet whole',
|
|
st.fleets.length === fleetsBefore && countShips(st, 0) === before);
|
|
}
|
|
const to = targetFor(st, fleet);
|
|
check('an empty selection is refused',
|
|
Logic.sendDetachment(RULES, st, fleet, to, []) === null);
|
|
check('asking for more ships than exist is refused',
|
|
Logic.sendDetachment(RULES, st, fleet, to, [{ hullId: 'frigate', mark: 1, count: 9 }]) === null);
|
|
check('asking for a stack that is not there is refused',
|
|
Logic.sendDetachment(RULES, st, fleet, to, [{ hullId: 'battleship', mark: 1, count: 1 }]) === null);
|
|
check('every refusal conserved the fleet',
|
|
st.fleets.length === fleetsBefore && countShips(st, 0) === before);
|
|
}
|
|
|
|
{
|
|
// The same stack named twice must be summed, not checked twice against the
|
|
// same stock — otherwise 2 + 2 of a stack of 3 would both pass.
|
|
const st = mk();
|
|
const home = st.galaxy.homeIdx[0];
|
|
const fleet = Logic.addFleet(RULES, st, 0, home, [{ hullId: 'frigate', mark: 1, count: 3 }]);
|
|
const to = targetFor(st, fleet);
|
|
check('a duplicated stack request is summed before it is checked',
|
|
Logic.sendDetachment(RULES, st, fleet, to, [
|
|
{ hullId: 'frigate', mark: 1, count: 2 }, { hullId: 'frigate', mark: 1, count: 2 },
|
|
]) === null);
|
|
check('the fleet survived the duplicated request',
|
|
fleet.ships.reduce((t, s) => t + s.count, 0) === 3);
|
|
}
|
|
|
|
{
|
|
// A star base cannot sail. Sending the mobile half of a mixed fleet must
|
|
// leave the base behind, and a fleet of nothing but bases cannot be sent.
|
|
const st = mk();
|
|
const home = st.galaxy.homeIdx[0];
|
|
const fleet = Logic.addFleet(RULES, st, 0, home,
|
|
[{ hullId: 'starbase', mark: 1, count: 1 }, { hullId: 'frigate', mark: 1, count: 2 }]);
|
|
const before = countShips(st, 0);
|
|
const to = targetFor(st, fleet);
|
|
const sent = Logic.sendDetachment(RULES, st, fleet, to, [{ hullId: 'frigate', mark: 1, count: 2 }]);
|
|
check('the mobile half of a mixed fleet can be sent', !!sent && sent.toStar === to);
|
|
check('the star base is not carried along',
|
|
!!sent && sent.ships.every((s) => s.hullId !== 'starbase'));
|
|
check('the star base is still at home',
|
|
Logic.fleetsAt(st, home).some((f) => f.ships.some((s) => s.hullId === 'starbase')));
|
|
check('a mixed-fleet split conserves ships', countShips(st, 0) === before);
|
|
|
|
const bases = Logic.addFleet(RULES, st, 0, st.galaxy.homeIdx[0],
|
|
[{ hullId: 'starbase', mark: 1, count: 1 }]);
|
|
check('a fleet of nothing but star bases cannot be sent',
|
|
Logic.sendDetachment(RULES, st, bases, to, [{ hullId: 'starbase', mark: 1, count: 1 }]) === null);
|
|
}
|
|
|
|
{
|
|
// splitFleet on its own: the two halves must both be real fleets, and a
|
|
// fleet already under way cannot be split at all.
|
|
const st = mk();
|
|
const home = st.galaxy.homeIdx[0];
|
|
const fleet = Logic.addFleet(RULES, st, 0, home, [{ hullId: 'frigate', mark: 1, count: 5 }]);
|
|
const before = countShips(st, 0);
|
|
const half = Logic.splitFleet(RULES, st, fleet, [{ hullId: 'frigate', mark: 1, count: 2 }]);
|
|
check('splitFleet returns a new fleet at the same star',
|
|
!!half && half.starIdx === home && half.id !== fleet.id);
|
|
check('splitFleet conserves ships', countShips(st, 0) === before);
|
|
check('splitting off everything is refused',
|
|
Logic.splitFleet(RULES, st, fleet, [{ hullId: 'frigate', mark: 1, count: 3 }]) === null);
|
|
const to = targetFor(st, fleet);
|
|
Logic.sendFleet(RULES, st, fleet, to);
|
|
check('a fleet under way cannot be split',
|
|
Logic.splitFleet(RULES, st, fleet, [{ hullId: 'frigate', mark: 1, count: 1 }]) === null);
|
|
check('a fleet under way cannot be given a new order',
|
|
Logic.sendDetachment(RULES, st, fleet, home, [{ hullId: 'frigate', mark: 1, count: 1 }]) === null);
|
|
}
|
|
|
|
{
|
|
// Two idle fleets in one system are merged again at the start of the next
|
|
// turn (trap 17). That is the rule the panel is designed around — the only
|
|
// split it offers is one that departs immediately — so it has to hold.
|
|
const st = mk();
|
|
const home = st.galaxy.homeIdx[0];
|
|
const fleet = Logic.addFleet(RULES, st, 0, home, [{ hullId: 'frigate', mark: 1, count: 4 }]);
|
|
Logic.splitFleet(RULES, st, fleet, [{ hullId: 'frigate', mark: 1, count: 1 }]);
|
|
check('a split leaves two fleets in the system',
|
|
Logic.fleetsAt(st, home).filter((f) => f.empireIdx === 0).length === 2);
|
|
Logic.beginEmpireTurn(RULES, st, 0);
|
|
check('idle detachments merge back at the start of the turn',
|
|
Logic.fleetsAt(st, home).filter((f) => f.empireIdx === 0).length === 1);
|
|
}
|
|
}
|
|
|
|
// ---------------------------------------------------------------------------
|
|
section('4c. Population transport');
|
|
// ---------------------------------------------------------------------------
|
|
{
|
|
// MOO1's "send N population from one colony to another" — dispatched
|
|
// directly as an already-in-transit 'poptransport' fleet (VegaLogic.js:
|
|
// sendPopulation), never built from a colony's queue.
|
|
const hull = RULES.hulls.poptransport;
|
|
check('the poptransport hull exists', !!hull);
|
|
check('poptransport shares the Troop Transport\'s sheet frame (no new art)',
|
|
hull?.frame === RULES.hulls.transport.frame);
|
|
check('poptransport is unarmed (space 0, matching its role)', hull?.space === 0);
|
|
check('poptransport carries no troops', !(hull?.troops > 0));
|
|
|
|
// 'large' + only two species maximises the odds of an unclaimed, in-range
|
|
// star existing near the human's homeworld to found a second colony on —
|
|
// same defensive style as section 6b's colonize() setup, which checks
|
|
// rather than assumes a settleable target exists.
|
|
function mkTwoColonyGame(seed) {
|
|
const st = Logic.createGame(RULES, {
|
|
sizeId: 'large', shapeId: 'cluster', seed, difficultyId: 'normal',
|
|
speciesIds: ['human', 'lithox'], humanIndex: 0,
|
|
});
|
|
st.rules = RULES;
|
|
const home = st.galaxy.homeIdx[0];
|
|
const target = Object.keys(Logic.reachableStars(RULES, st, 0)).map(Number)
|
|
.find((i) => i !== home && i !== st.galaxy.homeIdx[1]);
|
|
if (target === undefined) return { st, home, target: -1, second: null };
|
|
const second = Logic.foundColony(RULES, st, 0, target, 0, 5);
|
|
return { st, home, target, second };
|
|
}
|
|
|
|
{
|
|
const { st, home, target, second } = mkTwoColonyGame(4141);
|
|
check('the test galaxy offers a second site to found on', target >= 0);
|
|
if (target >= 0) {
|
|
const source = Logic.colonyAt(st, home);
|
|
const before = source.pop;
|
|
const cap = Logic.maxSendablePopulation(source);
|
|
check('maxSendablePopulation leaves the floor behind', cap === before - 0.5);
|
|
|
|
const ok = Logic.sendPopulation(RULES, st, 0, source.id, second.id, cap);
|
|
check('sendPopulation succeeds for a reachable, owned destination', ok);
|
|
check('the source colony loses exactly what was sent', Math.abs(source.pop - 0.5) < 1e-9,
|
|
`${source.pop}`);
|
|
|
|
// Already in transit (starIdx -1), so it is found on state.fleets
|
|
// directly rather than fleetsAt(home) — fleetsAt filters by starIdx,
|
|
// which this fleet no longer has.
|
|
const fleet = st.fleets.find((f) => f.empireIdx === 0
|
|
&& f.ships.some((s) => s.hullId === 'poptransport'));
|
|
check('a poptransport fleet departs immediately (already in transit)',
|
|
!!fleet && fleet.toStar === target && fleet.starIdx < 0);
|
|
check('the payload rides on the ship stack, not a fixed per-hull capacity',
|
|
Math.abs(fleet.ships[0].popPayload - cap) < 1e-9);
|
|
|
|
// Run it to arrival.
|
|
const destBefore = second.pop;
|
|
let turns = 0;
|
|
while (fleet.toStar >= 0 && turns < 200) { Logic.moveFleetsFor(RULES, st, 0); turns += 1; }
|
|
check('the transport arrives within a sane number of turns', turns < 200, `${turns}`);
|
|
// A near-total transfer from a mature homeworld can comfortably exceed
|
|
// a freshly founded colony's max population — delivery caps at that
|
|
// max rather than overflowing it, discarding the excess silently
|
|
// (a deliberate simplification: the sender's responsibility to check
|
|
// the destination has room, exactly like a colony ship arriving at a
|
|
// world already at capacity).
|
|
const maxPopSecond = Logic.colonyMaxPop(RULES, st, second);
|
|
check('arrival delivers the payload, capped at the destination\'s max population',
|
|
Math.abs(second.pop - Math.min(maxPopSecond, destBefore + cap)) < 1e-9,
|
|
`${second.pop} vs min(${maxPopSecond}, ${destBefore + cap})`);
|
|
check('the delivered payload never exceeds the destination\'s max population',
|
|
second.pop <= maxPopSecond + 1e-9);
|
|
check('the spent transport is cleaned up, not left idle forever',
|
|
!Logic.fleetsAt(st, target).some((f) => f.empireIdx === 0
|
|
&& f.ships.some((s) => s.hullId === 'poptransport')));
|
|
check('a populationSent event was recorded',
|
|
st.events.some((e) => e.type === 'populationSent' && e.empire === 0 && e.starIdx === home));
|
|
check('a populationDelivered event was recorded',
|
|
st.events.some((e) => e.type === 'populationDelivered' && e.empire === 0 && e.starIdx === target));
|
|
}
|
|
}
|
|
|
|
{
|
|
// Guardrails: a colony can never be fully emptied, and a request beyond
|
|
// what is available is clamped rather than refused outright.
|
|
const { st, home, target, second } = mkTwoColonyGame(4242);
|
|
if (target >= 0) {
|
|
const source = Logic.colonyAt(st, home);
|
|
const cap = Logic.maxSendablePopulation(source);
|
|
const ok = Logic.sendPopulation(RULES, st, 0, source.id, second.id, cap + 1000);
|
|
check('an oversized request is clamped to what the colony can spare', ok);
|
|
check('the source is left at exactly the floor', Math.abs(source.pop - 0.5) < 1e-9);
|
|
}
|
|
}
|
|
|
|
{
|
|
// Refusals: not your colony, same star, not your destination, nothing to spare.
|
|
const { st, home, target, second } = mkTwoColonyGame(4343);
|
|
if (target >= 0) {
|
|
const source = Logic.colonyAt(st, home);
|
|
const enemyColony = Logic.colonyAt(st, st.galaxy.homeIdx[1]);
|
|
check('sending from a colony you do not own is refused',
|
|
Logic.sendPopulation(RULES, st, 0, enemyColony.id, second.id, 1) === false);
|
|
check('sending to a star with no colony of yours is refused',
|
|
Logic.sendPopulation(RULES, st, 0, source.id, enemyColony.id, 1) === false);
|
|
check('sending to the same star is refused',
|
|
Logic.sendPopulation(RULES, st, 0, source.id, source.id, 1) === false);
|
|
source.pop = 0.5;
|
|
check('a colony already at the floor has nothing left to send',
|
|
Logic.sendPopulation(RULES, st, 0, source.id, second.id, 1) === false);
|
|
}
|
|
}
|
|
|
|
{
|
|
// A poptransport in transit must never be swept up as invasion troops or
|
|
// combat power — it shares no hullId with 'transport' and has no weapons.
|
|
const { st, home, target, second } = mkTwoColonyGame(4444);
|
|
if (target >= 0) {
|
|
Logic.sendPopulation(RULES, st, 0, Logic.colonyAt(st, home).id, second.id, 1);
|
|
// Already in transit — see the note above about why this is
|
|
// state.fleets directly and not fleetsAt(home).
|
|
const fleet = st.fleets.find((f) => f.ships.some((s) => s.hullId === 'poptransport'));
|
|
check('invasionForecast ignores poptransport stacks',
|
|
Logic.invasionForecast(RULES, st, 1, home)?.troops === 0
|
|
|| Logic.invasionForecast(RULES, st, 1, home) === null);
|
|
check('poptransport contributes no combat power',
|
|
Logic.fleetPower(RULES, st, fleet) === 0);
|
|
}
|
|
}
|
|
}
|
|
|
|
// ---------------------------------------------------------------------------
|
|
section('5. Combat');
|
|
// ---------------------------------------------------------------------------
|
|
{
|
|
const techsUpTo = (tier) => {
|
|
const k = {};
|
|
for (const t of RULES.techList) if (t.tier <= tier) k[t.id] = true;
|
|
return k;
|
|
};
|
|
const mkEmp = (sid, tier) => ({ known: techsUpTo(tier), traits: RULES.species[sid].traits });
|
|
const battle = (aS, aT, aShips, dS, dT, dShips, seed, colony = null) => Combat.runBattle(
|
|
Combat.createBattle(RULES, {
|
|
attacker: { empireIdx: 0, name: aS, empire: mkEmp(aS, aT), ships: aShips },
|
|
defender: { empireIdx: 1, name: dS, empire: mkEmp(dS, dT), ships: dShips },
|
|
colony, rnd: mulberry32(seed),
|
|
}),
|
|
);
|
|
|
|
const N = QUICK ? 120 : 400;
|
|
|
|
// Mirror matches must be a coin flip. Any systematic edge here means every
|
|
// other balance number measured against a mirror is meaningless.
|
|
let worstBias = 0;
|
|
let capped = 0;
|
|
let total = 0;
|
|
for (const tier of [0, 2, 4, 6, 8, 9]) {
|
|
let atk = 0;
|
|
for (let s = 1; s <= N; s += 1) {
|
|
const r = battle('human', tier, [{ hullId: 'cruiser', count: 5 }],
|
|
'human', tier, [{ hullId: 'cruiser', count: 5 }], s * 7919);
|
|
if (r.winner === 'attacker') atk += 1;
|
|
if (r.rounds >= RULES.combat.maxRounds) capped += 1;
|
|
total += 1;
|
|
}
|
|
const bias = Math.abs(atk / N - 0.5);
|
|
worstBias = Math.max(worstBias, bias);
|
|
check(`mirror match at tier ${tier} is fair`, bias < 0.12, `attacker ${(atk / N * 100).toFixed(1)}%`);
|
|
}
|
|
check('no battle ends on the round cap', capped === 0, `${capped}/${total}`);
|
|
check('worst mirror bias within tolerance', worstBias < 0.12, `${(worstBias * 100).toFixed(1)}pp`);
|
|
|
|
const rate = (fn, n = QUICK ? 80 : 200) => {
|
|
let w = 0;
|
|
for (let s = 1; s <= n; s += 1) if (fn(s * 7919).winner === 'attacker') w += 1;
|
|
return w / n;
|
|
};
|
|
|
|
check('a two-tier tech lead is decisive',
|
|
rate((s) => battle('human', 6, [{ hullId: 'cruiser', count: 5 }], 'human', 4, [{ hullId: 'cruiser', count: 5 }], s)) > 0.8);
|
|
check('numbers matter',
|
|
rate((s) => battle('human', 5, [{ hullId: 'cruiser', count: 7 }], 'human', 5, [{ hullId: 'cruiser', count: 5 }], s)) > 0.8);
|
|
check('a ship-attack species beats a neutral one',
|
|
rate((s) => battle('rrashaa', 5, [{ hullId: 'cruiser', count: 5 }], 'human', 5, [{ hullId: 'cruiser', count: 5 }], s)) > 0.7);
|
|
check('a ship-defence species beats a neutral one',
|
|
rate((s) => battle('human', 5, [{ hullId: 'cruiser', count: 5 }], 'kestrelli', 5, [{ hullId: 'cruiser', count: 5 }], s)) < 0.3);
|
|
// The two opposite racial bonuses must cancel — if they do not, one of them
|
|
// is being applied on the wrong side of the hit formula.
|
|
const cancel = rate((s) => battle('kestrelli', 5, [{ hullId: 'cruiser', count: 5 }], 'rrashaa', 5, [{ hullId: 'cruiser', count: 5 }], s));
|
|
check('opposing attack and defence bonuses cancel', Math.abs(cancel - 0.5) < 0.15, `${(cancel * 100).toFixed(1)}%`);
|
|
|
|
// Determinism, and auto-resolve agreeing with a played-out battle. They run
|
|
// the same stepper, so this is a structural guarantee rather than a tuning
|
|
// one — but it is exactly the kind of thing a refactor silently breaks.
|
|
const mk = (seed) => Combat.createBattle(RULES, {
|
|
attacker: { empireIdx: 0, name: 'a', empire: mkEmp('human', 5), ships: [{ hullId: 'cruiser', count: 4 }] },
|
|
defender: { empireIdx: 1, name: 'd', empire: mkEmp('ursaal', 5), ships: [{ hullId: 'destroyer', count: 9 }] },
|
|
colony: null, rnd: mulberry32(seed),
|
|
});
|
|
const r1 = Combat.runBattle(mk(1234));
|
|
const r2 = Combat.runBattle(mk(1234));
|
|
check('battles are deterministic', JSON.stringify(r1) === JSON.stringify(r2));
|
|
|
|
const stepped = mk(4321);
|
|
let guard = 0;
|
|
while (!stepped.done && guard < RULES.combat.maxRounds + 2) { guard += 1; Combat.stepRound(stepped, {}); }
|
|
const autoNoRetreat = Combat.runBattle(mk(4321), { allowRetreat: false });
|
|
check('stepping a battle out matches auto-resolve',
|
|
Combat.battleResult(stepped).winner === autoNoRetreat.winner);
|
|
|
|
// A colony's defences must matter without being unassailable.
|
|
const undefended = rate((s) => battle('human', 5, [{ hullId: 'cruiser', count: 4 }], 'human', 5, [], s, null), 60);
|
|
const defended = rate((s) => battle('human', 5, [{ hullId: 'cruiser', count: 4 }], 'human', 5, [], s,
|
|
{ defenseHp: 600, shieldBonus: 5 }), 60);
|
|
check('planetary defences make a difference', defended <= undefended, `${defended} vs ${undefended}`);
|
|
|
|
// Ground combat.
|
|
const inv = Combat.resolveInvasion(RULES, mulberry32(7), 60, 50, { groundDefense: 0 }, 0, 40);
|
|
check('a large invasion force takes a lightly held world', inv.captured);
|
|
const inv2 = Combat.resolveInvasion(RULES, mulberry32(7), 4, 0, { groundDefense: 200 }, 200, 300);
|
|
check('a token force fails against a fortress', !inv2.captured);
|
|
|
|
// Cloaked (Stealth Field) and singularity (Black Hole Generator) used to be
|
|
// computed onto the design and never read anywhere in combat. Isolate each
|
|
// flag by hand-cloning an otherwise-identical fully-teched design — passing
|
|
// `design` directly on a ship entry skips the known-tech derivation, so the
|
|
// A/B pair differs in exactly one field.
|
|
const baseDesign = Ships.designFor(RULES, techsUpTo(9), 'cruiser', RULES.species.human.traits);
|
|
check('a fully-teched design has both flags available to strip', baseDesign.cloaked && baseDesign.singularity);
|
|
const withoutCloak = { ...baseDesign, cloaked: false };
|
|
const withoutSingularity = { ...baseDesign, singularity: false };
|
|
|
|
const abBattle = (aDesign, dDesign, seed) => Combat.runBattle(Combat.createBattle(RULES, {
|
|
attacker: { empireIdx: 0, name: 'a', empire: mkEmp('human', 9), ships: [{ hullId: 'cruiser', count: 5, design: aDesign }] },
|
|
defender: { empireIdx: 1, name: 'd', empire: mkEmp('human', 9), ships: [{ hullId: 'cruiser', count: 5, design: dDesign }] },
|
|
rnd: mulberry32(seed),
|
|
}));
|
|
// Both effects are deliberately modest — calibrated (see VegaCombat.js
|
|
// comments) to land near what a mild species combat-trait bonus is worth in
|
|
// this exact harness (~62%), nowhere near the >0.8 "decisive" bar used
|
|
// above for a two-tier tech lead or a numbers advantage.
|
|
const cloakRate = rate((s) => abBattle(baseDesign, withoutCloak, s));
|
|
check('cloak makes an otherwise-identical fleet harder to beat, but not decisively',
|
|
cloakRate > 0.52 && cloakRate < 0.8, `attacker (cloaked) won ${(cloakRate * 100).toFixed(1)}%`);
|
|
const singularityRate = rate((s) => abBattle(baseDesign, withoutSingularity, s));
|
|
check('singularity shield-pierce makes an otherwise-identical fleet harder to beat, but not decisively',
|
|
singularityRate > 0.52 && singularityRate < 0.8, `attacker (singularity) won ${(singularityRate * 100).toFixed(1)}%`);
|
|
}
|
|
|
|
// ---------------------------------------------------------------------------
|
|
section('6. Colony economy');
|
|
// ---------------------------------------------------------------------------
|
|
{
|
|
const st = Logic.createGame(RULES, {
|
|
sizeId: 'medium', shapeId: 'spiral', seed: 31, difficultyId: 'normal',
|
|
speciesIds: ['human', 'kkrix', 'lithox'], humanIndex: -1,
|
|
});
|
|
st.rules = RULES;
|
|
const colony = st.colonies[0];
|
|
|
|
// Sliders always normalise to 1.
|
|
Logic.setSlider(RULES, st, colony, 'industry', 0.8);
|
|
const sum = Logic.CHANNELS.reduce((t, ch) => t + colony.sliders[ch], 0);
|
|
check('sliders normalise to 1', Math.abs(sum - 1) < 1e-6, `${sum}`);
|
|
check('the set channel takes the value it was given', Math.abs(colony.sliders.industry - 0.8) < 1e-6);
|
|
Logic.setSlider(RULES, st, colony, 'industry', 5);
|
|
check('slider values are clamped', colony.sliders.industry <= 1);
|
|
|
|
// The two blocks below poke at one colony's allocation and queue. The
|
|
// 200-turn soak further down measures every colony against its own ceiling,
|
|
// so put this one back exactly as it was found rather than handing the soak a
|
|
// colony configured by a unit test.
|
|
const restore = {
|
|
sliders: { ...colony.sliders }, locked: { ...colony.locked }, queue: [...colony.queue],
|
|
};
|
|
|
|
// --- padlocks. `colony.locked` has been honoured by setSlider since the
|
|
// engine was written but had no UI until the colony screen, so this is the
|
|
// first thing that proves the behaviour is what that screen assumes.
|
|
{
|
|
const c = st.colonies[0];
|
|
Logic.CHANNELS.forEach((ch) => { delete c.locked[ch]; });
|
|
Logic.setSlider(RULES, st, c, 'research', 0.2);
|
|
c.locked.research = true;
|
|
const pinned = c.sliders.research;
|
|
Logic.setSlider(RULES, st, c, 'industry', 0.7);
|
|
check('a locked channel holds its share', Math.abs(c.sliders.research - pinned) < 1e-9,
|
|
`${c.sliders.research} vs ${pinned}`);
|
|
const lockedSum = Logic.CHANNELS.reduce((t, ch) => t + c.sliders[ch], 0);
|
|
check('locking still normalises the whole allocation to 1',
|
|
Math.abs(lockedSum - 1) < 1e-6, `${lockedSum}`);
|
|
// A channel cannot claim room a lock has already spoken for. The colony
|
|
// screen relies on this to keep the last channel unlockable.
|
|
c.locked.ecology = true;
|
|
c.locked.defense = true;
|
|
Logic.setSlider(RULES, st, c, 'industry', 1);
|
|
const room = 1 - (c.sliders.research + c.sliders.ecology + c.sliders.defense);
|
|
check('a slider cannot take room the locks reserved',
|
|
c.sliders.industry <= room + 1e-9, `${c.sliders.industry} vs ${room}`);
|
|
Logic.CHANNELS.forEach((ch) => { delete c.locked[ch]; });
|
|
Logic.setSlider(RULES, st, c, 'industry', 0.4);
|
|
}
|
|
|
|
// --- build queue: repeats, reordering, and the ETA the colony screen quotes.
|
|
{
|
|
const c = st.colonies[0];
|
|
c.queue.length = 0;
|
|
|
|
check('enqueueMany queues every copy it was asked for',
|
|
Logic.enqueueMany(RULES, st, c, 'ship', 'scout', 3) === 3, `${c.queue.length}`);
|
|
check('repeats are stored as separate entries', c.queue.length === 3);
|
|
// Buildings are unique per colony, so a repeat request stops after the first.
|
|
const bId = RULES.buildingList.find((b) => !b.prereq).id;
|
|
check('enqueueMany refuses duplicate buildings',
|
|
Logic.enqueueMany(RULES, st, c, 'building', bId, 4) === 1);
|
|
|
|
c.queue.length = 0;
|
|
Logic.enqueue(RULES, st, c, 'ship', 'scout');
|
|
Logic.enqueue(RULES, st, c, 'ship', 'frigate');
|
|
Logic.enqueue(RULES, st, c, 'ship', 'destroyer');
|
|
c.queue[0].progress = 7;
|
|
|
|
check('moveQueueItem rejects an out-of-range source',
|
|
!Logic.moveQueueItem(RULES, st, c, 9, 0) && !Logic.moveQueueItem(RULES, st, c, -1, 0));
|
|
check('moving an item onto itself is a no-op that still succeeds',
|
|
Logic.moveQueueItem(RULES, st, c, 1, 1) && c.queue[1].id === 'frigate');
|
|
|
|
Logic.moveQueueItem(RULES, st, c, 2, 0);
|
|
check('moveQueueItem reorders the queue',
|
|
c.queue.map((q) => q.id).join(',') === 'destroyer,scout,frigate',
|
|
c.queue.map((q) => q.id).join(','));
|
|
// Progress lives on the item, so demoting the half-built head banks its BC
|
|
// rather than handing them to whatever was promoted over it.
|
|
check('progress travels with the item it belongs to',
|
|
c.queue[1].id === 'scout' && c.queue[1].progress === 7 && c.queue[0].progress === 0,
|
|
`${c.queue[0].id}:${c.queue[0].progress} ${c.queue[1].id}:${c.queue[1].progress}`);
|
|
check('a destination past the end clamps to the last slot',
|
|
Logic.moveQueueItem(RULES, st, c, 0, 99) && c.queue[2].id === 'destroyer');
|
|
|
|
// --- collapsed runs. A "x N" row is N queue entries, and moving one is N
|
|
// splices whose indices differ by direction — get it wrong and the run
|
|
// silently interleaves with its neighbour instead of throwing.
|
|
c.queue.length = 0;
|
|
Logic.enqueueMany(RULES, st, c, 'ship', 'scout', 3);
|
|
Logic.enqueueMany(RULES, st, c, 'ship', 'frigate', 2);
|
|
let runs = Logic.collapseQueue(c);
|
|
check('identical consecutive ships collapse into one run',
|
|
runs.length === 2 && runs[0].count === 3 && runs[1].count === 2,
|
|
runs.map((r) => `${r.item.id}x${r.count}`).join(','));
|
|
check('a run records the span it covers',
|
|
runs[0].index === 0 && runs[0].lastIndex === 2 && runs[1].index === 3);
|
|
|
|
Logic.moveQueueRun(RULES, st, c, runs, 0, 1);
|
|
check('moving a run down keeps it contiguous',
|
|
c.queue.map((q) => q.id).join(',') === 'frigate,frigate,scout,scout,scout',
|
|
c.queue.map((q) => q.id).join(','));
|
|
runs = Logic.collapseQueue(c);
|
|
Logic.moveQueueRun(RULES, st, c, runs, 1, -1);
|
|
check('moving a run back up restores the original order',
|
|
c.queue.map((q) => q.id).join(',') === 'scout,scout,scout,frigate,frigate',
|
|
c.queue.map((q) => q.id).join(','));
|
|
check('moving a run off either end is refused',
|
|
!Logic.moveQueueRun(RULES, st, c, runs, 0, -1)
|
|
&& !Logic.moveQueueRun(RULES, st, c, runs, runs.length - 1, 1));
|
|
|
|
// A part-built entry must stand alone: its progress bar has to stay
|
|
// legible, and it is the one slot the engine actually spends on.
|
|
c.queue[0].progress = 5;
|
|
runs = Logic.collapseQueue(c);
|
|
check('a part-built entry does not join the run behind it',
|
|
runs[0].count === 1 && runs[0].item.progress === 5 && runs[1].count === 2,
|
|
runs.map((r) => `${r.item.id}x${r.count}`).join(','));
|
|
c.queue[0].progress = 0;
|
|
|
|
const rate = Logic.colonyBuildRate(RULES, st, c);
|
|
check('colonyBuildRate is finite and non-negative', Number.isFinite(rate) && rate >= 0, `${rate}`);
|
|
const eta = Logic.queueItemEta(RULES, st, c, c.queue[0]);
|
|
check('a funded queue quotes a whole number of turns',
|
|
rate <= 0 || (Number.isInteger(eta) && eta >= 1), `${eta}`);
|
|
// Nothing reaching construction must read as "never", not as 0 turns.
|
|
const idle = { ...c, sliders: { ...c.sliders, ships: 0, industry: 0, defense: 0 } };
|
|
check('an unfunded queue reports no ETA rather than an instant one',
|
|
Logic.queueItemEta(RULES, st, idle, c.queue[0]) === Infinity);
|
|
}
|
|
|
|
// --- Colony Focus autopilot: exercised directly, each focus in isolation
|
|
// on an empty queue. Runs before the restore below, so nothing here needs
|
|
// to worry about leaving the colony as it was found.
|
|
{
|
|
const c = st.colonies[0];
|
|
check('a freshly-founded colony defaults to manual focus',
|
|
st.colonies.every((col) => col.focus === 'manual'));
|
|
|
|
c.queue.length = 0;
|
|
c.focus = 'manual';
|
|
Logic.autoQueueColonies(RULES, st, c.empireIdx);
|
|
check('manual focus never auto-queues anything', c.queue.length === 0);
|
|
|
|
c.queue.length = 0;
|
|
c.focus = 'improvement';
|
|
Logic.autoQueueColonies(RULES, st, c.empireIdx);
|
|
check('colony improvement queues a building when the queue is empty',
|
|
c.queue.length === 1 && c.queue[0].kind === 'building', JSON.stringify(c.queue[0]));
|
|
|
|
c.queue.length = 0;
|
|
c.focus = 'fleet';
|
|
Logic.autoQueueColonies(RULES, st, c.empireIdx);
|
|
check('fleet production queues a warship hull',
|
|
c.queue.length === 1 && c.queue[0].kind === 'ship' && RULES.hulls[c.queue[0].id]?.role === 'warship',
|
|
c.queue[0]?.id);
|
|
|
|
// With every research building's prereq stripped, Research Focus has
|
|
// nothing it is allowed to queue — the queue must stay empty rather than
|
|
// queuing something else or throwing.
|
|
c.queue.length = 0;
|
|
c.focus = 'research';
|
|
const emp = st.empires[c.empireIdx];
|
|
const savedKnown = { ...emp.known };
|
|
for (const b of RULES.buildingList.filter((bb) => bb.channel === 'research')) {
|
|
if (b.prereq) delete emp.known[b.prereq];
|
|
}
|
|
Logic.autoQueueColonies(RULES, st, c.empireIdx);
|
|
check('research focus leaves the queue empty when no research buildings are available',
|
|
c.queue.length === 0);
|
|
emp.known = savedKnown;
|
|
|
|
c.focus = 'manual';
|
|
}
|
|
|
|
// --- Advisor recommendations: recommendColonyFocus / recommendAllocationFocus
|
|
// / checkAdvisorRecommendations. Uses a throwaway state so nothing here
|
|
// needs restoring afterward.
|
|
{
|
|
const st2 = Logic.createGame(RULES, {
|
|
sizeId: 'medium', shapeId: 'spiral', seed: 77, difficultyId: 'normal',
|
|
speciesIds: ['human', 'kkrix', 'lithox'], humanIndex: 0,
|
|
});
|
|
st2.rules = RULES;
|
|
const c = st2.colonies[0];
|
|
const emp2 = st2.empires[c.empireIdx];
|
|
const COLONY_FOCUS_VALUES = new Set(['manual', 'improvement', 'research', 'fleet', 'growth', 'trade', 'defense']);
|
|
const ALLOC_FOCUS_KEYS = new Set(['default', 'research', 'growth', 'production', 'military']);
|
|
|
|
check('a fresh colony has no advisor tracking armed yet',
|
|
c.advisor.focusQuietUntil === null && c.advisor.allocQuietUntil === null
|
|
&& c.advisor.focusNotifiedValue === null && c.advisor.allocKey === null && c.advisor.allocNotifiedKey === null);
|
|
|
|
// Growth: starve population well below its ceiling and grant the
|
|
// cheapest growth building's prereq so one is actually eligible.
|
|
const maxPop = Logic.colonyMaxPop(RULES, st2, c);
|
|
c.pop = maxPop * 0.3;
|
|
emp2.known.controlledbarren = true; // unlocks cloningcenter
|
|
let rec = Logic.recommendColonyFocus(RULES, st2, c);
|
|
check('low population recommends Population Growth', rec.value === 'growth', rec.value);
|
|
let recA = Logic.recommendAllocationFocus(RULES, st2, c);
|
|
check('low population recommends the Population Growth allocation preset', recA.key === 'growth', recA.key);
|
|
c.pop = maxPop;
|
|
|
|
// Improvement: cap factories out. automatedfactory has no prereq, so
|
|
// nothing extra needs granting.
|
|
const factoryCap = Logic.colonyFactoryCap(RULES, st2, c);
|
|
c.factories = factoryCap;
|
|
rec = Logic.recommendColonyFocus(RULES, st2, c);
|
|
check('capped factories recommend Colony Improvement', rec.value === 'improvement', rec.value);
|
|
// Neither "capped" (colony focus) nor "still building out" (allocation
|
|
// focus) — clears both factory rungs so the fleet check below is the
|
|
// first thing either ladder actually trips on.
|
|
c.factories = Math.round(factoryCap * 0.8);
|
|
|
|
// Fleet: a fleetless empire this early is always below the turn-scaled threshold.
|
|
rec = Logic.recommendColonyFocus(RULES, st2, c);
|
|
check('a fleetless empire this early recommends Fleet Production', rec.value === 'fleet', rec.value);
|
|
recA = Logic.recommendAllocationFocus(RULES, st2, c);
|
|
check('a fleetless empire this early recommends the Military Buildup allocation preset',
|
|
recA.key === 'military', recA.key);
|
|
|
|
// A strong fleet moves the recommendation on.
|
|
Logic.addFleet(RULES, st2, c.empireIdx, c.starIdx, [{ hullId: 'battleship', mark: 1, count: 10 }]);
|
|
rec = Logic.recommendColonyFocus(RULES, st2, c);
|
|
check('a strong fleet no longer recommends Fleet Production', rec.value !== 'fleet', rec.value);
|
|
check('every recommendColonyFocus value is a real Colony Focus option', COLONY_FOCUS_VALUES.has(rec.value), rec.value);
|
|
check('every recommendAllocationFocus key is a real Allocation Focus preset',
|
|
ALLOC_FOCUS_KEYS.has(Logic.recommendAllocationFocus(RULES, st2, c).key));
|
|
|
|
// checkAdvisorRecommendations: silent until the player has picked
|
|
// something (both Quiet fields still null).
|
|
Logic.checkAdvisorRecommendations(RULES, st2, c.empireIdx);
|
|
check('advisors stay silent until the player has picked something',
|
|
!st2.events.some((ev) => ev.type === 'advisorRecommendation'));
|
|
|
|
// Arm tracking, force the current setting to diverge from the live
|
|
// recommendation, and confirm exactly one event fires.
|
|
c.advisor.focusQuietUntil = st2.turn;
|
|
c.advisor.allocQuietUntil = st2.turn;
|
|
const before = Logic.recommendColonyFocus(RULES, st2, c);
|
|
c.focus = before.value === 'research' ? 'trade' : 'research';
|
|
Logic.checkAdvisorRecommendations(RULES, st2, c.empireIdx);
|
|
let fired = st2.events.filter((ev) => ev.type === 'advisorRecommendation');
|
|
check('a diverging recommendation fires exactly one event', fired.length === 1, `${fired.length}`);
|
|
check('the event names this colony', fired[0]?.colonyId === c.id);
|
|
|
|
// Calling it again next turn with nothing changed must not repeat.
|
|
st2.turn += 1;
|
|
Logic.checkAdvisorRecommendations(RULES, st2, c.empireIdx);
|
|
check('an unchanged still-diverging recommendation does not fire again',
|
|
st2.events.filter((ev) => ev.type === 'advisorRecommendation').length === 1);
|
|
|
|
// Matching the recommendation clears the dedup marker, so a LATER
|
|
// divergence is reported fresh.
|
|
c.focus = before.value;
|
|
st2.turn += 1;
|
|
Logic.checkAdvisorRecommendations(RULES, st2, c.empireIdx);
|
|
check('matching the recommendation clears the notified marker', c.advisor.focusNotifiedValue === null);
|
|
c.focus = c.focus === 'research' ? 'trade' : 'research';
|
|
st2.turn += 1;
|
|
Logic.checkAdvisorRecommendations(RULES, st2, c.empireIdx);
|
|
fired = st2.events.filter((ev) => ev.type === 'advisorRecommendation');
|
|
check('a fresh divergence after matching fires again', fired.length === 2, `${fired.length}`);
|
|
|
|
// The report layer must render this without throwing and name the colony.
|
|
const desc = describeEvent(RULES, st2, fired[fired.length - 1]);
|
|
check('advisorRecommendation renders a headline naming the colony',
|
|
desc.headline.includes(c.name ?? ''), desc.headline);
|
|
}
|
|
|
|
colony.sliders = restore.sliders;
|
|
colony.locked = restore.locked;
|
|
colony.queue = restore.queue;
|
|
|
|
// Run a long stretch and assert the colony stays healthy without any AI.
|
|
for (let i = 0; i < 200 * st.empires.length; i += 1) {
|
|
Logic.beginEmpireTurn(RULES, st, st.current);
|
|
Logic.endEmpireTurn(RULES, st, st.current);
|
|
}
|
|
for (const c of st.colonies) {
|
|
check(`colony at ${c.starIdx} has non-negative population`, c.pop >= 0);
|
|
check(`colony at ${c.starIdx} respects its population cap`,
|
|
c.pop <= Logic.colonyMaxPop(RULES, st, c) + 1e-6);
|
|
check(`colony at ${c.starIdx} never exceeds its worked-factory cap`,
|
|
Logic.effectiveFactories(RULES, st, c) <= Logic.colonyFactoryCap(RULES, st, c) + 1e-6);
|
|
check(`colony at ${c.starIdx} stays within its defence cap`,
|
|
c.defenseHp <= Logic.colonyDefenseCap(RULES, st, c) + 1e-6);
|
|
// Ecology is funded off the top, so waste must never run away.
|
|
check(`colony at ${c.starIdx} is not drowning in waste`, c.waste < 5, `${c.waste.toFixed(1)}`);
|
|
}
|
|
// Absolute population totals are not comparable across species — a Lithox
|
|
// start on a barren world supports a fraction of a Human terran one, by
|
|
// design. Measure each colony against its OWN ceiling instead.
|
|
check('every colony grows toward its own ceiling', st.colonies.every(
|
|
(c) => c.pop >= Logic.colonyMaxPop(RULES, st, c) * 0.6,
|
|
), st.colonies.map((c) => `${(c.pop / Logic.colonyMaxPop(RULES, st, c)).toFixed(2)}`).join(' '));
|
|
check('treasuries are never negative', st.empires.every((e) => e.bc >= 0));
|
|
|
|
// Lithox generate no waste at all — the trait must reach the economy.
|
|
const lith = st.colonies.find((c) => st.empires[c.empireIdx].speciesId === 'lithox');
|
|
if (lith) check('a pollution-immune species generates no waste', lith.waste === 0);
|
|
|
|
// Waste recovery: dump a backlog on a colony and confirm it cleans up.
|
|
const dirty = st.colonies[0];
|
|
dirty.waste = 400;
|
|
for (let i = 0; i < 60 * st.empires.length; i += 1) {
|
|
Logic.beginEmpireTurn(RULES, st, st.current);
|
|
Logic.endEmpireTurn(RULES, st, st.current);
|
|
}
|
|
check('a colony recovers from a waste backlog', dirty.waste < 5, `${dirty.waste.toFixed(1)}`);
|
|
}
|
|
|
|
// ---------------------------------------------------------------------------
|
|
section('6b. Founding vignette and the turn report');
|
|
// ---------------------------------------------------------------------------
|
|
{
|
|
// Founding a colony is announced ONCE, by VegaColonyIntro.js the moment it
|
|
// happens. Putting it back in the "New Turn" popup would announce it twice.
|
|
check('founding a colony is not a turn-report row', !NOTABLE_TYPES.has('colonised'));
|
|
check('colonised has no turn-report label either', !TYPE_LABEL.colonised);
|
|
for (const type of NOTABLE_TYPES) {
|
|
check(`notable event ${type} has a turn-report label`, !!TYPE_LABEL[type]);
|
|
}
|
|
// The event itself must survive: the ticker log still classifies it, and the
|
|
// engine's own bookkeeping (announced/trimmed) runs over it.
|
|
{
|
|
const st = Logic.createGame(RULES, {
|
|
sizeId: 'small', shapeId: 'spiral', difficultyId: 'normal', seed: 6161,
|
|
speciesIds: ['human', 'kkrix'], humanIndex: 0,
|
|
});
|
|
const home = st.empires[0].homeStar;
|
|
// Settleable means habitable AT THIS TECH, not merely a colonisable type —
|
|
// planetology is what gates hostile worlds, and picking on the static flag
|
|
// alone lands on a barren world colonize() will refuse on turn one.
|
|
let target = -1;
|
|
let orbit = -1;
|
|
st.galaxy.stars.forEach((s, i) => {
|
|
if (target >= 0 || i === home) return;
|
|
const o = s.planets.findIndex((p, oo) => Logic.canColonize(RULES, st, 0, i, oo));
|
|
if (o >= 0) { target = i; orbit = o; }
|
|
});
|
|
check('the opening galaxy offers somewhere to settle', target >= 0);
|
|
if (target >= 0) {
|
|
st.empires[0].explored[target] = true;
|
|
Logic.addFleet(RULES, st, 0, target, [{ hullId: 'colonyship', mark: 1, count: 1 }]);
|
|
const ok = Logic.colonize(RULES, st, 0, target, orbit);
|
|
const ev = st.events.find((e) => e.type === 'colonised' && e.starIdx === target);
|
|
check('colonising still pushes a colonised event', ok && !!ev);
|
|
// The vignette looks the new colony up by orbit, exactly like this.
|
|
check('the founded colony is findable by its orbit',
|
|
!!Logic.coloniesAt(st, target).find((c) => c.orbit === orbit));
|
|
// describeEvent must not throw on an event that is no longer notable —
|
|
// the ticker log walks every event, notable or not.
|
|
if (ev) check('describeEvent survives a colonised event', !!describeEvent(RULES, st, ev));
|
|
}
|
|
}
|
|
|
|
// Every number the vignette reads out, on a colony one tick old, for every
|
|
// colonisable world type any species could land on. These are called before
|
|
// the colony has ever been processed, which is a state no other screen sees.
|
|
{
|
|
const st = Logic.createGame(RULES, {
|
|
sizeId: 'large', shapeId: 'cluster', difficultyId: 'normal', seed: 2727,
|
|
speciesIds: RULES.speciesList.slice(0, 6).map((s) => s.id), humanIndex: 0,
|
|
});
|
|
const seen = new Set();
|
|
st.galaxy.stars.forEach((star, starIdx) => {
|
|
star.planets.forEach((planet, orbit) => {
|
|
if (!RULES.planetTypes[planet.typeId].colonizable) return;
|
|
if (seen.has(planet.typeId)) return;
|
|
if (Logic.coloniesAt(st, starIdx).some((c) => c.orbit === orbit)) return;
|
|
seen.add(planet.typeId);
|
|
const c = Logic.foundColony(RULES, st, 0, starIdx, orbit, 5);
|
|
const stats = {
|
|
maxPop: Logic.colonyMaxPop(RULES, st, c),
|
|
output: Logic.colonyProduction(RULES, st, c),
|
|
build: Logic.colonyBuildRate(RULES, st, c),
|
|
factoryCap: Logic.colonyFactoryCap(RULES, st, c),
|
|
};
|
|
for (const [name, v] of Object.entries(stats)) {
|
|
check(`vignette ${name} on a fresh ${planet.typeId} colony is a finite number`,
|
|
Number.isFinite(v) && v >= 0, `${v}`);
|
|
}
|
|
check(`a fresh ${planet.typeId} colony can hold the settlers it landed with`,
|
|
stats.maxPop >= c.pop, `${stats.maxPop} < ${c.pop}`);
|
|
st.colonies.pop();
|
|
});
|
|
});
|
|
console.log(` (${seen.size} colonisable world types exercised)`);
|
|
}
|
|
}
|
|
|
|
// ---------------------------------------------------------------------------
|
|
section('6c. Research allocation locks');
|
|
// ---------------------------------------------------------------------------
|
|
{
|
|
// setResearchAlloc has honoured emp.allocLocked since VegaResearchScreen.js
|
|
// introduced the padlock UI — this is what proves the behaviour that
|
|
// screen assumes, the same way section 6's padlock block does for colony
|
|
// sliders.
|
|
const st = Logic.createGame(RULES, {
|
|
sizeId: 'small', shapeId: 'spiral', seed: 41, difficultyId: 'normal',
|
|
speciesIds: ['human', 'kkrix'], humanIndex: 0,
|
|
});
|
|
const emp = st.empires[0];
|
|
const fieldIds = Object.keys(RULES.techFields);
|
|
|
|
Logic.setResearchAlloc(RULES, st, 0, 'weapons', 0.4);
|
|
emp.allocLocked.weapons = true;
|
|
const pinned = emp.alloc.weapons;
|
|
Logic.setResearchAlloc(RULES, st, 0, 'computers', 0.5);
|
|
check('a locked research field holds its share',
|
|
Math.abs(emp.alloc.weapons - pinned) < 1e-9, `${emp.alloc.weapons} vs ${pinned}`);
|
|
const sum1 = fieldIds.reduce((t, f) => t + emp.alloc[f], 0);
|
|
check('locking a research field still normalises the whole allocation to 1',
|
|
Math.abs(sum1 - 1) < 1e-6, `${sum1}`);
|
|
|
|
// Lock every field but one and confirm the last unlocked field can still
|
|
// take the full remaining room without NaN/negative fallout.
|
|
for (const f of fieldIds) emp.allocLocked[f] = true;
|
|
delete emp.allocLocked.propulsion;
|
|
Logic.setResearchAlloc(RULES, st, 0, 'propulsion', 1);
|
|
check('the sole unlocked field absorbs whatever room the locks left',
|
|
Number.isFinite(emp.alloc.propulsion) && emp.alloc.propulsion >= 0, `${emp.alloc.propulsion}`);
|
|
const sum2 = fieldIds.reduce((t, f) => t + emp.alloc[f], 0);
|
|
check('allocation still sums to 1 with five of six fields locked',
|
|
Math.abs(sum2 - 1) < 1e-6, `${sum2}`);
|
|
|
|
// A locked field's own slider is inert — dragging it directly is a no-op
|
|
// (the padlock UI disables the control, but setResearchAlloc guards it too
|
|
// since AI code shares the same function).
|
|
for (const f of fieldIds) delete emp.allocLocked[f];
|
|
emp.allocLocked.forcefields = true;
|
|
const before = emp.alloc.forcefields;
|
|
Logic.setResearchAlloc(RULES, st, 0, 'forcefields', 0.9);
|
|
check('a locked field ignores an attempt to drag its own slider',
|
|
emp.alloc.forcefields === before, `${emp.alloc.forcefields} vs ${before}`);
|
|
|
|
for (const f of fieldIds) delete emp.allocLocked[f];
|
|
}
|
|
|
|
// ---------------------------------------------------------------------------
|
|
section('7. Diplomacy and the Galactic Council');
|
|
// ---------------------------------------------------------------------------
|
|
{
|
|
const st = Logic.createGame(RULES, {
|
|
sizeId: 'medium', shapeId: 'elliptical', seed: 77, difficultyId: 'normal',
|
|
speciesIds: ['human', 'kkrix', 'rrashaa', 'lithox'], humanIndex: -1,
|
|
});
|
|
st.rules = RULES;
|
|
|
|
check('a species with no diplomacy cannot negotiate', (() => {
|
|
st.empires[0].contacted[3] = true;
|
|
st.empires[3].contacted[0] = true;
|
|
return !Diplo.canNegotiate(RULES, st, 0, 3);
|
|
})());
|
|
|
|
Diplo.declareWar(RULES, st, 0, 1);
|
|
check('war is mutual', Logic.atWar(st, 0, 1) && Logic.atWar(st, 1, 0));
|
|
check('being attacked is resented', st.empires[1].attitude[0] < 0);
|
|
Diplo.makePeace(RULES, st, 0, 1);
|
|
check('peace is mutual', !Logic.atWar(st, 0, 1) && !Logic.atWar(st, 1, 0));
|
|
|
|
check('attitudes stay in range', (() => {
|
|
for (let i = 0; i < 400; i += 1) {
|
|
for (const e of st.empires) Diplo.driftAttitudes(RULES, st, e.idx);
|
|
}
|
|
return st.empires.every((e) => Object.values(e.attitude)
|
|
.every((v) => v >= -100 && v <= 100 && Number.isFinite(v)));
|
|
})());
|
|
|
|
// Council arithmetic.
|
|
for (const e of st.empires) { e.totalPop = 100; for (const o of st.empires) if (o.idx !== e.idx) e.attitude[o.idx] = 60; }
|
|
st.empires[0].totalPop = 400;
|
|
const result = Logic.runCouncil(RULES, st);
|
|
check('the council names exactly two candidates', result.candidates.length === 2);
|
|
check('every vote is accounted for', (() => {
|
|
const cast = Object.values(result.votes).reduce((t, v) => t + v, 0);
|
|
return Math.abs(cast + result.abstained - result.totalPop) < 1e-6;
|
|
})(), `${JSON.stringify(result.votes)} + ${result.abstained} vs ${result.totalPop}`);
|
|
check('a landslide elects a High Guardian or is refused',
|
|
result.winner >= 0 || result.refused);
|
|
|
|
// Refusal: a candidate at war with the winner walks out.
|
|
const st2 = Logic.createGame(RULES, {
|
|
sizeId: 'medium', shapeId: 'elliptical', seed: 78, difficultyId: 'normal',
|
|
speciesIds: ['human', 'kkrix', 'rrashaa'], humanIndex: -1,
|
|
});
|
|
st2.rules = RULES;
|
|
for (const e of st2.empires) {
|
|
e.totalPop = 100;
|
|
for (const o of st2.empires) if (o.idx !== e.idx) { e.contacted[o.idx] = true; e.attitude[o.idx] = 80; }
|
|
}
|
|
st2.empires[0].totalPop = 900;
|
|
Diplo.declareWar(RULES, st2, 0, 1);
|
|
const r2 = Logic.runCouncil(RULES, st2);
|
|
check('a candidate at war refuses to submit', r2.refused === true && r2.winner === -1);
|
|
check('a refusal is never also a victory', !(r2.refused && st2.over));
|
|
|
|
check('the council reschedules itself', st2.council.nextTurn > st2.turn);
|
|
check('powerOf is finite for every empire',
|
|
st2.empires.every((e) => Number.isFinite(Diplo.powerOf(RULES, st2, e.idx))));
|
|
|
|
// --- checkContactAt: the star-scoped rewrite. Sharing a star triggers
|
|
// contact; being merely nearby (the old parsec-range behaviour) does not.
|
|
{
|
|
const st3 = Logic.createGame(RULES, {
|
|
sizeId: 'small', shapeId: 'cluster', seed: 909, difficultyId: 'normal',
|
|
speciesIds: ['human', 'kkrix', 'lithox'], humanIndex: 0,
|
|
});
|
|
st3.rules = RULES;
|
|
const homes = new Set(st3.empires.map((e) => e.homeStar));
|
|
const spare = st3.galaxy.stars.map((s, i) => i).filter((i) => !homes.has(i));
|
|
const [starA, starB] = spare;
|
|
check('the test galaxy has two spare stars', starA >= 0 && starB >= 0 && starA !== starB);
|
|
if (starA >= 0 && starB >= 0) {
|
|
Logic.foundColony(RULES, st3, 0, starA, 0, 5);
|
|
Logic.foundColony(RULES, st3, 1, starB, 0, 5);
|
|
Logic.checkContactAt(RULES, st3, starA);
|
|
Logic.checkContactAt(RULES, st3, starB);
|
|
check('mere proximity does not create contact (old proximity behaviour is gone)',
|
|
!st3.empires[0].contacted[1]);
|
|
|
|
Logic.addFleet(RULES, st3, 1, starA, [{ hullId: 'scout', mark: 1, count: 1 }]);
|
|
Logic.checkContactAt(RULES, st3, starA);
|
|
check('sharing a star creates mutual contact',
|
|
st3.empires[0].contacted[1] === true && st3.empires[1].contacted[0] === true);
|
|
check('sharing a star pushes a contact event at that star',
|
|
st3.events.some((e) => e.type === 'contact' && e.starIdx === starA
|
|
&& [e.empire, e.other].includes(0) && [e.empire, e.other].includes(1)));
|
|
}
|
|
|
|
// --- proposeOrOffer / respondToOffer / expiry, using the contact just made.
|
|
const held = Diplo.proposeOrOffer(RULES, st3, 1, 0, 'peace');
|
|
check('an AI peace proposal to the human is held, not resolved', held === 'pending');
|
|
check('a held offer does not touch the treaty yet', st3.empires[0].treaties[1] !== 'peace');
|
|
check('a held offer is recorded on the human empire, keyed by proposer',
|
|
st3.empires[0].pendingOffers[1]?.kind === 'peace');
|
|
|
|
const offersBefore = st3.events.filter((e) => e.type === 'offerReceived').length;
|
|
Diplo.proposeOrOffer(RULES, st3, 1, 0, 'peace');
|
|
const offersAfter = st3.events.filter((e) => e.type === 'offerReceived').length;
|
|
check('re-proposing while one offer is outstanding does not duplicate it',
|
|
offersAfter === offersBefore);
|
|
|
|
const humanProposed = Diplo.proposeOrOffer(RULES, st3, 0, 1, 'peace');
|
|
check('a human proposal to an AI resolves immediately, never held',
|
|
typeof humanProposed === 'boolean');
|
|
check('a human proposal never creates a pendingOffers entry on the AI',
|
|
!st3.empires[1].pendingOffers[0]);
|
|
|
|
check('respondToOffer with no matching offer is a safe no-op',
|
|
Diplo.respondToOffer(RULES, st3, 0, 2, true) === false);
|
|
|
|
const accepted = Diplo.respondToOffer(RULES, st3, 0, 1, true);
|
|
check('accepting a held offer succeeds', accepted === true);
|
|
check('accepting a held peace offer applies the treaty both ways',
|
|
st3.empires[0].treaties[1] === 'peace' && st3.empires[1].treaties[0] === 'peace');
|
|
check('accepting clears the pending offer', !st3.empires[0].pendingOffers[1]);
|
|
|
|
const heldAlliance = Diplo.proposeOrOffer(RULES, st3, 1, 0, 'alliance');
|
|
check('a second kind of offer can be held once the first is resolved',
|
|
heldAlliance === 'pending');
|
|
const rejected = Diplo.respondToOffer(RULES, st3, 0, 1, false);
|
|
check('rejecting a held offer succeeds', rejected === true);
|
|
check('rejecting does not apply the treaty', st3.empires[0].treaties[1] !== 'alliance');
|
|
check('rejecting clears the pending offer', !st3.empires[0].pendingOffers[1]);
|
|
check('rejecting pushes an offerRejected event',
|
|
st3.events.some((e) => e.type === 'offerRejected' && e.empire === 0 && e.other === 1));
|
|
|
|
Diplo.proposeOrOffer(RULES, st3, 1, 0, 'alliance');
|
|
st3.turn += 10;
|
|
Diplo.runDiplomacyTurn(RULES, st3, 1);
|
|
check('a stale pending offer expires after enough turns',
|
|
st3.events.some((e) => e.type === 'offerExpired' && e.empire === 1 && e.other === 0));
|
|
}
|
|
|
|
// --- colonize() must trigger contact even when nobody's fleet just moved.
|
|
{
|
|
const stC = Logic.createGame(RULES, {
|
|
sizeId: 'small', shapeId: 'spiral', seed: 4242, difficultyId: 'normal',
|
|
speciesIds: ['human', 'kkrix'], humanIndex: 0,
|
|
});
|
|
let target = -1;
|
|
let orbit = -1;
|
|
stC.galaxy.stars.forEach((s, i) => {
|
|
if (target >= 0 || i === stC.empires[0].homeStar || i === stC.empires[1].homeStar) return;
|
|
const o = s.planets.findIndex((p, oo) => Logic.canColonize(RULES, stC, 1, i, oo));
|
|
if (o >= 0) { target = i; orbit = o; }
|
|
});
|
|
check('the colonize-contact galaxy offers somewhere to settle', target >= 0);
|
|
if (target >= 0) {
|
|
stC.empires[1].explored[target] = true;
|
|
Logic.addFleet(RULES, stC, 0, target, [{ hullId: 'scout', mark: 1, count: 1 }]);
|
|
Logic.addFleet(RULES, stC, 1, target, [{ hullId: 'colonyship', mark: 1, count: 1 }]);
|
|
const ok = Logic.colonize(RULES, stC, 1, target, orbit);
|
|
check('colonize succeeded onto the shared star', ok);
|
|
check('colonize() triggers contact without any fleet move',
|
|
ok && stC.empires[0].contacted[1] === true && stC.empires[1].contacted[0] === true);
|
|
}
|
|
}
|
|
|
|
// --- claimAudienceContacts: the routing helper deciding auto-open vs. the
|
|
// ordinary turn report.
|
|
{
|
|
const stD = Logic.createGame(RULES, {
|
|
sizeId: 'small', shapeId: 'cluster', seed: 5151, difficultyId: 'normal',
|
|
speciesIds: ['human', 'kkrix', 'lithox'], humanIndex: 0,
|
|
});
|
|
stD.rules = RULES;
|
|
stD.empires[0].contacted[1] = true; stD.empires[1].contacted[0] = true;
|
|
stD.empires[0].contacted[2] = true; stD.empires[2].contacted[0] = true;
|
|
stD.events.push({ type: 'contact', empire: 0, other: 1, starIdx: 1, turn: stD.turn });
|
|
stD.events.push({ type: 'contact', empire: 2, other: 0, starIdx: 2, turn: stD.turn });
|
|
|
|
const claimed = Diplo.claimAudienceContacts(RULES, stD, 0);
|
|
check('claimAudienceContacts claims only the diplomacy-capable contact',
|
|
claimed.length === 1 && claimed[0] === 1);
|
|
check('the claimed event is marked announced',
|
|
stD.events.find((e) => e.type === 'contact' && e.other === 1).announced === true);
|
|
check('the lithox contact event is left unannounced for the ordinary turn report',
|
|
stD.events.find((e) => e.type === 'contact' && e.empire === 2).announced !== true);
|
|
}
|
|
|
|
// --- Gifts: BC moves giver -> receiver, attitude rises, a quick repeat is
|
|
// worth less (diminishing returns, not a hard cooldown), and an
|
|
// unaffordable gift is a safe no-op.
|
|
{
|
|
const stE = Logic.createGame(RULES, {
|
|
sizeId: 'small', shapeId: 'spiral', seed: 606, difficultyId: 'normal',
|
|
speciesIds: ['human', 'kestrelli'], humanIndex: -1,
|
|
});
|
|
stE.rules = RULES;
|
|
stE.empires[0].contacted[1] = true; stE.empires[1].contacted[0] = true;
|
|
stE.empires[0].bc = 500;
|
|
const bcBefore1 = stE.empires[1].bc;
|
|
const attBefore1 = stE.empires[1].attitude[0] ?? 0;
|
|
const tier0 = RULES.diplomacy.gift.tiers[0];
|
|
|
|
const ok1 = Diplo.giveGift(RULES, stE, 0, 1, tier0.id);
|
|
check('giveGift succeeds when affordable', ok1 === true);
|
|
check('giveGift moves BC from giver to receiver',
|
|
stE.empires[0].bc === 500 - tier0.bc && stE.empires[1].bc === bcBefore1 + tier0.bc);
|
|
check('giveGift raises the receiver\'s attitude toward the giver',
|
|
stE.empires[1].attitude[0] > attBefore1);
|
|
check('giveGift pushes a gift event',
|
|
stE.events.some((e) => e.type === 'gift' && e.empire === 0 && e.other === 1));
|
|
|
|
const attAfter1 = stE.empires[1].attitude[0];
|
|
Diplo.giveGift(RULES, stE, 0, 1, tier0.id);
|
|
const secondDelta = stE.empires[1].attitude[0] - attAfter1;
|
|
check('a repeat gift inside the cooldown window still helps, but less than the first did',
|
|
secondDelta > 0 && secondDelta < tier0.delta, `${secondDelta} vs ${tier0.delta}`);
|
|
|
|
stE.empires[0].bc = 1;
|
|
const bcBeforeFail = stE.empires[0].bc;
|
|
const failed = Diplo.giveGift(RULES, stE, 0, 1, RULES.diplomacy.gift.tiers.at(-1).id);
|
|
check('an unaffordable gift fails and changes nothing',
|
|
failed === false && stE.empires[0].bc === bcBeforeFail);
|
|
}
|
|
|
|
// --- Trade agreements: full propose/accept ceremony (mirrors alliance),
|
|
// symmetric formation, BC income isolated via two identical clones, and
|
|
// cancellation when war breaks out between the two parties.
|
|
{
|
|
const stF = Logic.createGame(RULES, {
|
|
sizeId: 'small', shapeId: 'spiral', seed: 707, difficultyId: 'normal',
|
|
speciesIds: ['human', 'kestrelli', 'ursaal'], humanIndex: 0,
|
|
});
|
|
stF.rules = RULES;
|
|
|
|
// AI-to-AI (1 -> 2): resolves immediately via proposeTreaty.
|
|
stF.empires[1].contacted[2] = true; stF.empires[2].contacted[1] = true;
|
|
stF.empires[2].attitude[1] = 50;
|
|
const formed = Diplo.proposeTreaty(RULES, stF, 1, 2, 'tradeAgreement');
|
|
check('an AI-to-AI trade-agreement proposal that clears the threshold succeeds', formed === true);
|
|
check('forming a trade agreement sets both sides symmetrically',
|
|
stF.empires[1].tradeAgreements[2] === true && stF.empires[2].tradeAgreements[1] === true);
|
|
check('forming a trade agreement pushes a tradeAgreementFormed event',
|
|
stF.events.some((e) => e.type === 'tradeAgreementFormed' && e.empire === 1 && e.other === 2));
|
|
check('forming a trade agreement raises attitude both ways',
|
|
stF.empires[1].attitude[2] > 0 && stF.empires[2].attitude[1] > 50);
|
|
|
|
// AI-to-human (1 -> 0): held, not resolved immediately — same
|
|
// proposeOrOffer/pendingOffers/respondToOffer machinery Alliance uses.
|
|
stF.empires[0].contacted[1] = true; stF.empires[1].contacted[0] = true;
|
|
const held = Diplo.proposeOrOffer(RULES, stF, 1, 0, 'tradeAgreement');
|
|
check('an AI trade-agreement proposal to the human is held, not resolved', held === 'pending');
|
|
check('a held trade-agreement offer does not touch the relationship yet',
|
|
!stF.empires[0].tradeAgreements[1]);
|
|
const accepted = Diplo.respondToOffer(RULES, stF, 0, 1, true);
|
|
check('accepting a held trade-agreement offer succeeds', accepted === true);
|
|
check('accepting applies the trade agreement both ways',
|
|
stF.empires[0].tradeAgreements[1] === true && stF.empires[1].tradeAgreements[0] === true);
|
|
|
|
// War cancels an active trade agreement.
|
|
Diplo.declareWar(RULES, stF, 0, 1);
|
|
check('declaring war clears an active trade agreement on both sides',
|
|
!stF.empires[0].tradeAgreements[1] && !stF.empires[1].tradeAgreements[0]);
|
|
check('war cancellation pushes a tradeAgreementEnded event',
|
|
stF.events.some((e) => e.type === 'tradeAgreementEnded' && e.reason === 'war'
|
|
&& [e.empire, e.other].includes(0) && [e.empire, e.other].includes(1)));
|
|
|
|
// BC income: two clones of the same state, differing ONLY in whether a
|
|
// trade agreement is active, isolates the income term from every other
|
|
// per-turn effect beginEmpireTurn also applies.
|
|
const baseState = Logic.createGame(RULES, {
|
|
sizeId: 'small', shapeId: 'spiral', seed: 808, difficultyId: 'normal',
|
|
speciesIds: ['human', 'kestrelli'], humanIndex: -1,
|
|
});
|
|
baseState.rules = RULES;
|
|
baseState.empires[0].contacted[1] = true; baseState.empires[1].contacted[0] = true;
|
|
Diplo.makePeace(RULES, baseState, 0, 1);
|
|
const savedBase = Logic.serialize(baseState);
|
|
const withoutTA = Logic.deserialize(savedBase);
|
|
withoutTA.rules = RULES;
|
|
const withTA = Logic.deserialize(savedBase);
|
|
withTA.rules = RULES;
|
|
withTA.empires[0].tradeAgreements[1] = true;
|
|
withTA.empires[1].tradeAgreements[0] = true;
|
|
const bcBeforeNo = withoutTA.empires[0].bc;
|
|
const bcBeforeYes = withTA.empires[0].bc;
|
|
Logic.beginEmpireTurn(RULES, withoutTA, 0);
|
|
Logic.beginEmpireTurn(RULES, withTA, 0);
|
|
check('an active trade agreement adds BC income beyond an identical empire without one',
|
|
(withTA.empires[0].bc - bcBeforeYes) > (withoutTA.empires[0].bc - bcBeforeNo));
|
|
}
|
|
|
|
// --- Border/fleet proximity tension: closer colonies/fleets lose more
|
|
// attitude than distant ones, and war/alliance pairs are untouched by
|
|
// these two passes specifically (driftAttitudes already covers war, and
|
|
// allies aren't meant to grind on each other's borders).
|
|
{
|
|
const stG = Logic.createGame(RULES, {
|
|
sizeId: 'medium', shapeId: 'spiral', seed: 909, difficultyId: 'normal',
|
|
speciesIds: ['human', 'kestrelli', 'ursaal'], humanIndex: -1,
|
|
});
|
|
stG.rules = RULES;
|
|
stG.colonies.length = 0;
|
|
stG.fleets.length = 0;
|
|
stG.empires[0].contacted[1] = true; stG.empires[1].contacted[0] = true;
|
|
stG.empires[0].contacted[2] = true; stG.empires[2].contacted[0] = true;
|
|
|
|
const stars = stG.galaxy.stars;
|
|
let far = 0;
|
|
let maxD = -1;
|
|
for (let i = 1; i < stars.length; i += 1) {
|
|
const d = Math.hypot(stars[i].x - stars[0].x, stars[i].y - stars[0].y);
|
|
if (d > maxD) { maxD = d; far = i; }
|
|
}
|
|
const near = 0;
|
|
stG.colonies.push({
|
|
id: 9001, empireIdx: 0, starIdx: near, orbit: 0, pop: 5,
|
|
});
|
|
stG.colonies.push({
|
|
id: 9002, empireIdx: 1, starIdx: near, orbit: 1, pop: 5,
|
|
});
|
|
stG.colonies.push({
|
|
id: 9003, empireIdx: 2, starIdx: far, orbit: 0, pop: 5,
|
|
});
|
|
|
|
// Species carry non-zero starting attitude baselines — zero the pairs
|
|
// under test so a delta from this pass alone is unambiguous.
|
|
stG.empires[0].attitude[1] = 0; stG.empires[1].attitude[0] = 0;
|
|
stG.empires[0].attitude[2] = 0; stG.empires[2].attitude[0] = 0;
|
|
Diplo.applyBorderTension(RULES, stG);
|
|
check('colonies on the same star (minimum distance) lose attitude from border tension',
|
|
stG.empires[0].attitude[1] < 0 && stG.empires[1].attitude[0] < 0);
|
|
check('colonies far beyond the border range are untouched',
|
|
(stG.empires[0].attitude[2] ?? 0) === 0 && (stG.empires[2].attitude[0] ?? 0) === 0);
|
|
|
|
stG.empires[0].attitude[1] = 0; stG.empires[1].attitude[0] = 0;
|
|
stG.empires[0].treaties[1] = 'alliance'; stG.empires[1].treaties[0] = 'alliance';
|
|
Diplo.applyBorderTension(RULES, stG);
|
|
check('allied colonies at minimum distance are skipped by border tension',
|
|
stG.empires[0].attitude[1] === 0 && stG.empires[1].attitude[0] === 0);
|
|
|
|
stG.empires[0].treaties[1] = 'war'; stG.empires[1].treaties[0] = 'war';
|
|
Diplo.applyBorderTension(RULES, stG);
|
|
check('warring colonies at minimum distance are skipped by border tension (driftAttitudes covers war)',
|
|
stG.empires[0].attitude[1] === 0 && stG.empires[1].attitude[0] === 0);
|
|
stG.empires[0].treaties[1] = 'none'; stG.empires[1].treaties[0] = 'none';
|
|
|
|
stG.colonies.length = 0;
|
|
stG.fleets.push({
|
|
id: 9101, empireIdx: 0, starIdx: near, toStar: -1, fromStar: -1, ships: [{ hullId: 'scout', mark: 1, count: 1 }],
|
|
});
|
|
stG.fleets.push({
|
|
id: 9102, empireIdx: 1, starIdx: near, toStar: -1, fromStar: -1, ships: [{ hullId: 'scout', mark: 1, count: 1 }],
|
|
});
|
|
stG.fleets.push({
|
|
id: 9103, empireIdx: 2, starIdx: far, toStar: -1, fromStar: -1, ships: [{ hullId: 'scout', mark: 1, count: 1 }],
|
|
});
|
|
stG.empires[0].attitude[1] = 0; stG.empires[1].attitude[0] = 0;
|
|
stG.empires[0].attitude[2] = 0; stG.empires[2].attitude[0] = 0;
|
|
Diplo.applyFleetProximityTension(RULES, stG);
|
|
check('fleets sharing a star lose attitude from fleet proximity tension',
|
|
stG.empires[0].attitude[1] < 0 && stG.empires[1].attitude[0] < 0);
|
|
check('fleets far beyond the fleet range are untouched',
|
|
(stG.empires[0].attitude[2] ?? 0) === 0 && (stG.empires[2].attitude[0] ?? 0) === 0);
|
|
}
|
|
|
|
// --- Fleet intrusion: the arrival turn is free, penalties escalate the
|
|
// longer a foreign fleet dwells, leaving resets the tracker, allied and
|
|
// at-war fleets never accrue an entry, and claimFleetComplaints behaves
|
|
// exactly like claimAudienceContacts (capable-only, idempotent).
|
|
{
|
|
const stH = Logic.createGame(RULES, {
|
|
sizeId: 'small', shapeId: 'spiral', seed: 1010, difficultyId: 'normal',
|
|
speciesIds: ['human', 'kestrelli'], humanIndex: -1,
|
|
});
|
|
stH.rules = RULES;
|
|
stH.colonies.length = 0;
|
|
stH.fleets.length = 0;
|
|
const star = stH.galaxy.stars.length - 1;
|
|
stH.colonies.push({ id: 9201, empireIdx: 0, starIdx: star, orbit: 0, pop: 5 });
|
|
stH.fleets.push({
|
|
id: 9301, empireIdx: 1, starIdx: star, toStar: -1, fromStar: -1, ships: [{ hullId: 'scout', mark: 1, count: 1 }],
|
|
});
|
|
|
|
const attOnArrival = stH.empires[0].attitude[1] ?? 0;
|
|
stH.turn = 10;
|
|
Diplo.checkFleetIntrusions(RULES, stH);
|
|
check('a fleet on its arrival turn is free — no penalty, no event',
|
|
(stH.empires[0].attitude[1] ?? 0) === attOnArrival && !stH.events.some((e) => e.type === 'fleetComplaint'));
|
|
|
|
stH.turn = 11;
|
|
const attBeforeDwell1 = stH.empires[0].attitude[1] ?? 0;
|
|
Diplo.checkFleetIntrusions(RULES, stH);
|
|
const attAfterDwell1 = stH.empires[0].attitude[1];
|
|
check('past the grace period, a penalty applies', attAfterDwell1 < attBeforeDwell1);
|
|
check('the first violation pushes exactly one fleetComplaint event with first:true',
|
|
stH.events.filter((e) => e.type === 'fleetComplaint' && e.first === true).length === 1);
|
|
|
|
stH.turn = 12;
|
|
Diplo.checkFleetIntrusions(RULES, stH);
|
|
const attAfterDwell2 = stH.empires[0].attitude[1];
|
|
const mag1 = attBeforeDwell1 - attAfterDwell1;
|
|
const mag2 = attAfterDwell1 - attAfterDwell2;
|
|
check('the penalty escalates turn over turn while the fleet stays', mag2 > mag1, `${mag1} then ${mag2}`);
|
|
check('later turns of the same intrusion are not marked first',
|
|
stH.events.find((e) => e.type === 'fleetComplaint' && e.turn === 12)?.first === false);
|
|
|
|
stH.fleets.length = 0;
|
|
Diplo.checkFleetIntrusions(RULES, stH);
|
|
check('the fleet leaving clears the tracked intrusion entry',
|
|
Object.keys(stH.empires[0].fleetIntrusions[star] ?? {}).length === 0);
|
|
|
|
stH.fleets.push({
|
|
id: 9302, empireIdx: 1, starIdx: star, toStar: -1, fromStar: -1, ships: [{ hullId: 'scout', mark: 1, count: 1 }],
|
|
});
|
|
stH.turn = 13;
|
|
Diplo.checkFleetIntrusions(RULES, stH);
|
|
check('a later return restarts the grace period rather than resuming the old escalation',
|
|
stH.empires[0].fleetIntrusions[star]?.[1]?.sinceTurn === 13
|
|
&& (stH.empires[0].attitude[1] ?? 0) === attAfterDwell2); // dwell 0 on the new arrival — no fresh penalty yet
|
|
|
|
stH.empires[0].treaties[1] = 'alliance'; stH.empires[1].treaties[0] = 'alliance';
|
|
stH.empires[0].fleetIntrusions[star] = {};
|
|
stH.turn = 20;
|
|
Diplo.checkFleetIntrusions(RULES, stH);
|
|
check('an allied fleet never accrues an intrusion entry', !stH.empires[0].fleetIntrusions[star]?.[1]);
|
|
|
|
stH.empires[0].treaties[1] = 'war'; stH.empires[1].treaties[0] = 'war';
|
|
stH.turn = 21;
|
|
Diplo.checkFleetIntrusions(RULES, stH);
|
|
check('a fleet from an empire already at war never accrues an intrusion entry (a siege, not a faux-pas)',
|
|
!stH.empires[0].fleetIntrusions[star]?.[1]);
|
|
stH.empires[0].treaties[1] = 'none'; stH.empires[1].treaties[0] = 'none';
|
|
}
|
|
|
|
// --- claimFleetComplaints: mirrors claimAudienceContacts exactly.
|
|
{
|
|
const stI = Logic.createGame(RULES, {
|
|
sizeId: 'small', shapeId: 'spiral', seed: 1111, difficultyId: 'normal',
|
|
speciesIds: ['human', 'kestrelli', 'lithox'], humanIndex: 0,
|
|
});
|
|
stI.rules = RULES;
|
|
stI.empires[0].contacted[1] = true; stI.empires[1].contacted[0] = true;
|
|
stI.empires[0].contacted[2] = true; stI.empires[2].contacted[0] = true;
|
|
stI.events.push({ type: 'fleetComplaint', empire: 1, other: 0, starIdx: 5, dwell: 1, first: true, turn: stI.turn });
|
|
stI.events.push({ type: 'fleetComplaint', empire: 2, other: 0, starIdx: 6, dwell: 1, first: true, turn: stI.turn });
|
|
|
|
const claimed = Diplo.claimFleetComplaints(RULES, stI, 0);
|
|
check('claimFleetComplaints claims only the diplomacy-capable complaint',
|
|
claimed.length === 1 && claimed[0] === 1);
|
|
check('the claimed complaint event is marked announced',
|
|
stI.events.find((e) => e.type === 'fleetComplaint' && e.empire === 1).announced === true);
|
|
check('the lithox complaint is left unclaimed for the ordinary log line',
|
|
stI.events.find((e) => e.type === 'fleetComplaint' && e.empire === 2).announced !== true);
|
|
check('claiming is idempotent — a second call finds nothing new',
|
|
Diplo.claimFleetComplaints(RULES, stI, 0).length === 0);
|
|
}
|
|
|
|
// --- Attitude triangulation ("enemy of my enemy"): directional, clamped,
|
|
// and inert between empires already at war with each other.
|
|
{
|
|
const stJ = Logic.createGame(RULES, {
|
|
sizeId: 'small', shapeId: 'spiral', seed: 1212, difficultyId: 'normal',
|
|
speciesIds: ['human', 'kestrelli', 'ursaal'], humanIndex: -1,
|
|
});
|
|
stJ.rules = RULES;
|
|
for (const e of stJ.empires) for (const o of stJ.empires) if (e.idx !== o.idx) e.contacted[o.idx] = true;
|
|
Diplo.declareWar(RULES, stJ, 0, 1); // A(0) vs B(1)
|
|
Diplo.declareWar(RULES, stJ, 1, 2); // B(1) vs C(2)
|
|
|
|
const before = Diplo.attitudeOf(stJ, 2, 0);
|
|
Diplo.triangulateAttitudes(RULES, stJ);
|
|
const after = Diplo.attitudeOf(stJ, 2, 0);
|
|
check('a shared hostile third party nudges attitude upward (enemy of my enemy is my friend)',
|
|
after > before, `${before} -> ${after}`);
|
|
|
|
for (let i = 0; i < 300; i += 1) Diplo.triangulateAttitudes(RULES, stJ);
|
|
check('triangulation stays within [-100, 100] under repeated passes',
|
|
stJ.empires[2].attitude[0] >= -100 && stJ.empires[2].attitude[0] <= 100
|
|
&& Number.isFinite(stJ.empires[2].attitude[0]));
|
|
|
|
const beforeReverse = Diplo.attitudeOf(stJ, 0, 2);
|
|
Diplo.triangulateAttitudes(RULES, stJ);
|
|
check('triangulation is directional — the reverse pair is untouched by this function alone',
|
|
Diplo.attitudeOf(stJ, 0, 2) === beforeReverse);
|
|
|
|
check('no nudge between two empires already at war with each other', (() => {
|
|
Diplo.declareWar(RULES, stJ, 0, 2);
|
|
const b = Diplo.attitudeOf(stJ, 2, 0);
|
|
Diplo.triangulateAttitudes(RULES, stJ);
|
|
return Diplo.attitudeOf(stJ, 2, 0) === b;
|
|
})());
|
|
}
|
|
|
|
// --- VegaChat.js structural completeness: every diplomacy-capable species
|
|
// has every situation key the Audience screen's buttons and openers look
|
|
// up. pickLine's own empty-pool guard fails silently in production, so this
|
|
// is the only safety net for a content-authoring gap.
|
|
{
|
|
const SITUATIONS = [
|
|
'firstContact', 'proposePeace', 'proposeAlliance', 'declareWar', 'tradeTechOffer',
|
|
'replyPeaceAccept', 'replyPeaceReject', 'replyAllianceAccept', 'replyAllianceReject',
|
|
'replyWarDeclared', 'replyTechAccept', 'replyTechReject',
|
|
'offerPeaceOpener', 'offerAllianceOpener', 'acceptOffer', 'rejectOffer',
|
|
'afterAccepted', 'afterRejected',
|
|
'askPeople', 'peopleLore', 'askHomeworld', 'homeworldLore', 'askStory', 'storyLore',
|
|
'giftOffer', 'replyGiftWarm', 'replyGiftNeutral',
|
|
'proposeTradeAgreement', 'replyTradeAgreementAccept', 'replyTradeAgreementReject',
|
|
'offerTradeAgreementOpener',
|
|
'fleetComplaintOpener', 'acknowledgeComplaintWithdraw', 'acknowledgeComplaintDefy',
|
|
'afterComplaintWithdrawPromise', 'afterComplaintDefy',
|
|
];
|
|
// Lore reply pools are meant to carry real variety — enforce a minimum
|
|
// beyond "non-empty" since pickLine's empty-pool fallback is silent and
|
|
// a single-variant pool would defeat the whole point of these being
|
|
// richer than a one-line treaty reply.
|
|
const LORE_REPLY_MIN = { peopleLore: 3, homeworldLore: 3, storyLore: 3 };
|
|
const capable = RULES.speciesList.filter((s) => (s.traits.diplomacy ?? 0) > -100);
|
|
for (const s of capable) {
|
|
const chat = CHAT[s.id];
|
|
check(`VegaChat has an entry for ${s.id}`, !!chat);
|
|
if (!chat) continue;
|
|
for (const mood of ['angry', 'neutral', 'happy']) {
|
|
check(`VegaChat ${s.id}.opener.${mood} is non-empty`, chat.opener?.[mood]?.length > 0);
|
|
}
|
|
for (const key of SITUATIONS) {
|
|
check(`VegaChat ${s.id}.${key} is non-empty`, chat[key]?.length > 0);
|
|
}
|
|
for (const [key, min] of Object.entries(LORE_REPLY_MIN)) {
|
|
check(`VegaChat ${s.id}.${key} has at least ${min} variants`, (chat[key]?.length ?? 0) >= min);
|
|
}
|
|
}
|
|
check('lithox has a contact-only pool', CHAT.lithox?.contactOnly?.length > 0);
|
|
}
|
|
}
|
|
|
|
// ---------------------------------------------------------------------------
|
|
section('8. Leaders');
|
|
// ---------------------------------------------------------------------------
|
|
{
|
|
const st = Logic.createGame(RULES, {
|
|
sizeId: 'small', shapeId: 'cluster', seed: 5, difficultyId: 'normal',
|
|
speciesIds: ['human', 'ssakar'], humanIndex: -1,
|
|
});
|
|
st.rules = RULES;
|
|
const emp = st.empires[0];
|
|
emp.bc = 10000;
|
|
|
|
const offers = Leaders.leaderOffers(RULES, st, 0);
|
|
check('leaders are offered', offers.length > 0);
|
|
check('offers are stable within a turn',
|
|
JSON.stringify(Leaders.leaderOffers(RULES, st, 0)) === JSON.stringify(offers));
|
|
|
|
const hired = Logic.hireLeader(RULES, st, 0, offers[0].id);
|
|
check('a leader can be hired', hired && emp.leaders.length === 1);
|
|
check('hiring costs the treasury', emp.bc < 10000);
|
|
check('the same leader cannot be hired twice', !Logic.hireLeader(RULES, st, 0, offers[0].id));
|
|
check('a hired leader leaves the shared pool', Leaders.leaderTaken(st, offers[0].id));
|
|
check('another empire cannot hire them',
|
|
!Leaders.availableLeaders(RULES, st).some((l) => l.id === offers[0].id));
|
|
|
|
const def = RULES.leaders[offers[0].id];
|
|
const colony = Logic.empireColonies(st, 0)[0];
|
|
if (def.kind === 'admin') {
|
|
check('an admin can take a colony posting',
|
|
Logic.assignLeader(RULES, st, 0, def.id, 'colony', colony.id));
|
|
check('an admin cannot command a fleet',
|
|
!Logic.assignLeader(RULES, st, 0, def.id, 'fleet', 1));
|
|
check('a posted admin is found by the colony', !!Object.keys(
|
|
Logic.colonyLeaderSkills(RULES, st, colony)).length);
|
|
} else {
|
|
check('a captain cannot govern a colony',
|
|
!Logic.assignLeader(RULES, st, 0, def.id, 'colony', colony.id));
|
|
}
|
|
|
|
check('every leader skill is a finite number', RULES.leaderList.every((l) => Object.values(l.skills)
|
|
.every((v) => typeof v === 'number' && Number.isFinite(v))));
|
|
check('every leader costs upkeep', RULES.leaderList.every((l) => l.upkeep > 0));
|
|
|
|
// Postings must survive a turn and be cleaned up when their target dies.
|
|
Leaders.runLeaderTurn(RULES, st, 0);
|
|
check('leader postings stay valid after a turn', emp.leaders.every((l) => l.assignKind === null
|
|
|| l.assignId >= 0));
|
|
}
|
|
|
|
// ---------------------------------------------------------------------------
|
|
section('9. Serialisation');
|
|
// ---------------------------------------------------------------------------
|
|
{
|
|
const st = Logic.createGame(RULES, {
|
|
sizeId: 'small', shapeId: 'ring', seed: 909, difficultyId: 'hard',
|
|
speciesIds: ['umbrix', 'mekhan', 'cerebrai'], humanIndex: 0,
|
|
});
|
|
st.rules = RULES;
|
|
for (let i = 0; i < 20 * 3; i += 1) {
|
|
Logic.beginEmpireTurn(RULES, st, st.current);
|
|
AI.runAITurn(RULES, st, st.current);
|
|
Logic.endEmpireTurn(RULES, st, st.current);
|
|
}
|
|
|
|
const json = Logic.serialize(st);
|
|
const back = Logic.deserialize(json);
|
|
check('a save round-trips byte-identically', Logic.serialize(back) === json);
|
|
check('the hash survives a round-trip', Logic.hashState(back) === Logic.hashState(st));
|
|
check('rules are never serialised', !json.includes('"rules"') || !JSON.parse(json).rules);
|
|
check('derived caches are never serialised', !json.includes('_comps') && !json.includes('_range')
|
|
&& !json.includes('_designs'));
|
|
|
|
// pendingOffers and chatLog are plain-object empire/state fields, same
|
|
// convention as contacted/treaties/attitude — no special-casing in
|
|
// serialize()/deserialize(), so a round-trip has to preserve them for free.
|
|
st.empires[0].pendingOffers[1] = { kind: 'peace', turn: st.turn };
|
|
st.chatLog = { 1: [{ who: 'o', text: 'Contact logged. State function.' }] };
|
|
const json2 = Logic.serialize(st);
|
|
const back2 = Logic.deserialize(json2);
|
|
check('pendingOffers survives a round-trip',
|
|
JSON.stringify(back2.empires[0].pendingOffers) === JSON.stringify(st.empires[0].pendingOffers));
|
|
check('chatLog survives a round-trip',
|
|
JSON.stringify(back2.chatLog) === JSON.stringify(st.chatLog));
|
|
|
|
// Diplomacy-expansion fields follow the exact same emp.allocLocked ??= {}
|
|
// precedent: an old save predating this feature is missing them entirely,
|
|
// and deserialize() must back-fill them rather than choke on their absence.
|
|
const oldSave = JSON.parse(json2);
|
|
for (const emp of oldSave.empires) {
|
|
delete emp.tradeAgreements; delete emp.lastGiftTurn; delete emp.fleetIntrusions;
|
|
}
|
|
// Colony Focus follows the same convention: an old save has no `focus` at
|
|
// all on any colony. Advisor tracking is the same again, one field newer.
|
|
for (const c of oldSave.colonies) { delete c.focus; delete c.advisor; }
|
|
const backOld = Logic.deserialize(JSON.stringify(oldSave));
|
|
check('an old save missing the new diplomacy fields deserializes without throwing', !!backOld);
|
|
check('tradeAgreements is back-filled to {} on an old save',
|
|
backOld.empires.every((e) => JSON.stringify(e.tradeAgreements) === '{}'));
|
|
check('lastGiftTurn is back-filled to {} on an old save',
|
|
backOld.empires.every((e) => JSON.stringify(e.lastGiftTurn) === '{}'));
|
|
check('fleetIntrusions is back-filled to {} on an old save',
|
|
backOld.empires.every((e) => JSON.stringify(e.fleetIntrusions) === '{}'));
|
|
check('focus is back-filled to manual on an old save',
|
|
backOld.colonies.every((c) => c.focus === 'manual'));
|
|
check('advisor tracking is back-filled to all-null on an old save',
|
|
backOld.colonies.every((c) => c.advisor && c.advisor.focusQuietUntil === null
|
|
&& c.advisor.allocQuietUntil === null && c.advisor.allocKey === null));
|
|
backOld.rules = RULES;
|
|
check('the freshly-backfilled state tolerates a full galaxy diplomacy pass', (() => {
|
|
Diplo.runGalaxyDiplomacyPass(RULES, backOld);
|
|
return true;
|
|
})());
|
|
|
|
const bad = JSON.parse(json);
|
|
bad.version = 99;
|
|
check('a save from another version is rejected', Logic.deserialize(JSON.stringify(bad)) === null);
|
|
|
|
// Same seed, same game.
|
|
const mk = () => {
|
|
const s = Logic.createGame(RULES, {
|
|
sizeId: 'small', shapeId: 'ring', seed: 2024, difficultyId: 'normal',
|
|
speciesIds: ['ssakar', 'lithox', 'kestrelli'], humanIndex: -1,
|
|
});
|
|
s.rules = RULES;
|
|
for (let i = 0; i < 60 * 3; i += 1) {
|
|
Logic.beginEmpireTurn(RULES, s, s.current);
|
|
AI.runAITurn(RULES, s, s.current);
|
|
Logic.endEmpireTurn(RULES, s, s.current);
|
|
}
|
|
return Logic.hashState(s);
|
|
};
|
|
check('replaying a seed reproduces the game exactly', mk() === mk());
|
|
}
|
|
|
|
// ---------------------------------------------------------------------------
|
|
section('10. AI self-play soak');
|
|
// ---------------------------------------------------------------------------
|
|
{
|
|
const ALL = RULES.speciesList.map((s) => s.id);
|
|
const SIZES = ['small', 'medium', 'large'];
|
|
const DIFFS = ['easy', 'normal', 'hard'];
|
|
const SHAPES = ['spiral', 'elliptical', 'cluster', 'ring'];
|
|
const N = gamesArg ? Number(gamesArg.split('=')[1]) : (QUICK ? 6 : 27);
|
|
|
|
// Returns a string on violation, else null. Checked at intervals rather than
|
|
// every turn — the point is to catch corruption, not to profile.
|
|
function checkInvariants(st, label) {
|
|
for (const e of st.empires) {
|
|
if (!Number.isFinite(e.bc) || e.bc < 0) return `${label}: empire ${e.idx} bc ${e.bc}`;
|
|
if (!Number.isFinite(e.totalPop) || e.totalPop < 0) return `${label}: empire ${e.idx} pop ${e.totalPop}`;
|
|
for (const f of Object.keys(RULES.techFields)) {
|
|
if (!Number.isFinite(e.beakers[f]) || e.beakers[f] < 0) return `${label}: empire ${e.idx} beakers ${f}`;
|
|
}
|
|
if (!e.alive && Logic.empireColonies(st, e.idx).length > 0) {
|
|
return `${label}: dead empire ${e.idx} still holds colonies`;
|
|
}
|
|
// Trivially bounded (one entry per other empire at most), but the
|
|
// pending-offer engine is new — a leak here would mean an offer is
|
|
// never being cleared on accept/reject/expiry.
|
|
if (Object.keys(e.pendingOffers).length > st.empires.length) {
|
|
return `${label}: empire ${e.idx} has ${Object.keys(e.pendingOffers).length} pending offers`;
|
|
}
|
|
// Contact only ever grows and is always mutual — checkContactAt sets
|
|
// both sides in the same call, so an asymmetric or vanished entry means
|
|
// the star-scoped rewrite regressed.
|
|
for (const otherIdx of Object.keys(e.contacted)) {
|
|
if (e.contacted[otherIdx] && !st.empires[otherIdx]?.contacted[e.idx]) {
|
|
return `${label}: empire ${e.idx} contacted ${otherIdx} is not mutual`;
|
|
}
|
|
}
|
|
// Attitude must never leave its documented [-100, 100] range — every
|
|
// write path (adjust(), and the handful of direct writes in
|
|
// runEspionage/invade) is supposed to clamp on write.
|
|
for (const [otherIdx, v] of Object.entries(e.attitude)) {
|
|
if (!Number.isFinite(v) || v < -100 || v > 100) {
|
|
return `${label}: empire ${e.idx} attitude toward ${otherIdx} out of range (${v})`;
|
|
}
|
|
}
|
|
// Trade agreements are symmetric, formed/cleared together on both
|
|
// sides (formTradeAgreement/declareWar), same shape as contacted.
|
|
for (const otherIdx of Object.keys(e.tradeAgreements)) {
|
|
if (e.tradeAgreements[otherIdx] && !st.empires[otherIdx]?.tradeAgreements[e.idx]) {
|
|
return `${label}: empire ${e.idx} tradeAgreements ${otherIdx} is not mutual`;
|
|
}
|
|
}
|
|
// A dwell stamp from the future would mean the turn counter and the
|
|
// intrusion tracker have gotten out of sync.
|
|
for (const [starIdx, atStar] of Object.entries(e.fleetIntrusions)) {
|
|
for (const [otherIdx, rec] of Object.entries(atStar)) {
|
|
if (rec.sinceTurn > st.turn) {
|
|
return `${label}: empire ${e.idx} fleetIntrusions[${starIdx}][${otherIdx}] sinceTurn ${rec.sinceTurn} is in the future (turn ${st.turn})`;
|
|
}
|
|
}
|
|
}
|
|
}
|
|
for (const c of st.colonies) {
|
|
if (!Number.isFinite(c.pop) || c.pop < 0) return `${label}: colony ${c.id} pop ${c.pop}`;
|
|
if (!st.empires[c.empireIdx]?.alive) return `${label}: colony ${c.id} owned by a dead empire`;
|
|
if (c.starIdx < 0 || c.starIdx >= st.galaxy.stars.length) return `${label}: colony ${c.id} off-map`;
|
|
if (!st.galaxy.stars[c.starIdx].planets[c.orbit]) return `${label}: colony ${c.id} on no planet`;
|
|
if (c.waste > 5000) return `${label}: colony ${c.id} waste ${c.waste}`;
|
|
}
|
|
// No two colonies may share an orbit.
|
|
const seen = new Set();
|
|
for (const c of st.colonies) {
|
|
const key = `${c.starIdx}:${c.orbit}`;
|
|
if (seen.has(key)) return `${label}: two colonies in orbit ${key}`;
|
|
seen.add(key);
|
|
}
|
|
for (const f of st.fleets) {
|
|
if (!f.ships.length) return `${label}: empty fleet ${f.id}`;
|
|
if (f.ships.some((s) => s.count <= 0)) return `${label}: fleet ${f.id} has an empty stack`;
|
|
if (f.starIdx < 0 && (f.toStar < 0 || f.fromStar < 0)) return `${label}: fleet ${f.id} nowhere`;
|
|
if (f.starIdx >= st.galaxy.stars.length) return `${label}: fleet ${f.id} off-map`;
|
|
if (!st.empires[f.empireIdx]?.alive) return `${label}: fleet ${f.id} of a dead empire`;
|
|
}
|
|
return null;
|
|
}
|
|
|
|
function runGame(idx) {
|
|
const sizeId = SIZES[idx % SIZES.length];
|
|
const difficultyId = DIFFS[Math.floor(idx / SIZES.length) % DIFFS.length];
|
|
const shapeId = SHAPES[idx % SHAPES.length];
|
|
const count = Math.min(RULES.galaxySizes[sizeId].maxEmpires, 3 + (idx % 3));
|
|
const speciesIds = [];
|
|
for (let i = 0; i < count; i += 1) speciesIds.push(ALL[(idx * 3 + i) % ALL.length]);
|
|
|
|
const st = Logic.createGame(RULES, {
|
|
sizeId, shapeId, difficultyId, seed: 1000 + idx, speciesIds, humanIndex: -1,
|
|
});
|
|
st.rules = RULES;
|
|
|
|
let aiMs = 0;
|
|
let aiTurns = 0;
|
|
let invariantErr = null;
|
|
while (!st.over && st.turn < RULES.victory.turnCap) {
|
|
Logic.beginEmpireTurn(RULES, st, st.current);
|
|
const t0 = performance.now();
|
|
AI.runAITurn(RULES, st, st.current);
|
|
aiMs += performance.now() - t0;
|
|
aiTurns += 1;
|
|
Logic.endEmpireTurn(RULES, st, st.current);
|
|
if (st.turn % 50 === 0 && !invariantErr) {
|
|
invariantErr = checkInvariants(st, `game ${idx} turn ${st.turn}`);
|
|
}
|
|
}
|
|
if (!invariantErr) invariantErr = checkInvariants(st, `game ${idx} end`);
|
|
return { st, invariantErr, avgAiMs: aiTurns ? aiMs / aiTurns : 0 };
|
|
}
|
|
|
|
const games = [];
|
|
for (let i = 0; i < N; i += 1) games.push(runGame(i));
|
|
|
|
const firstErr = games.find((g) => g.invariantErr);
|
|
check('game invariants hold throughout', !firstErr, firstErr?.invariantErr ?? '');
|
|
|
|
const decided = games.filter((g) => g.st.over);
|
|
check('every game terminates', decided.length === games.length,
|
|
`${decided.length}/${games.length}`);
|
|
|
|
const kinds = {};
|
|
for (const g of games) kinds[g.st.victoryKind] = (kinds[g.st.victoryKind] ?? 0) + 1;
|
|
check('most games reach a real victory', (kinds.conquest ?? 0) + (kinds.council ?? 0) >= games.length * 0.6,
|
|
JSON.stringify(kinds));
|
|
check('conquest victories occur', (kinds.conquest ?? 0) > 0, JSON.stringify(kinds));
|
|
if (!QUICK) {
|
|
check('council victories occur', (kinds.council ?? 0) > 0, JSON.stringify(kinds));
|
|
}
|
|
|
|
const turns = games.map((g) => g.st.turn).sort((a, b) => a - b);
|
|
const median = turns[Math.floor(turns.length / 2)];
|
|
check('games are decided in a reasonable window', median >= 60 && median <= 650, `median ${median}`);
|
|
|
|
// Performance budget. The scene runs every AI empire synchronously between
|
|
// the player's turns, so this is what the player waits for.
|
|
const worst = Math.max(...games.map((g) => g.avgAiMs));
|
|
check('AI turn time budget (<=50ms avg)', worst <= 50, `worst ${worst.toFixed(2)}ms`);
|
|
|
|
// No single species should dominate the whole sweep.
|
|
const wins = {};
|
|
for (const g of games) {
|
|
if (g.st.winnerIdx >= 0) {
|
|
const sid = g.st.empires[g.st.winnerIdx].speciesId;
|
|
wins[sid] = (wins[sid] ?? 0) + 1;
|
|
}
|
|
}
|
|
const topShare = Math.max(0, ...Object.values(wins)) / Math.max(1, decided.length);
|
|
check('no species wins everything', topShare < 0.6, `${JSON.stringify(wins)}`);
|
|
|
|
// Wars must actually happen, and colonies must actually change hands.
|
|
const anyWar = games.some((g) => g.st.empires.some((e) => Object.values(e.treaties).includes('war')
|
|
|| g.st.empires.some((o) => o.idx !== e.idx && !o.alive)));
|
|
check('empires go to war', anyWar);
|
|
|
|
const totalEliminated = games.reduce((t, g) => t + g.st.empires.filter((e) => !e.alive).length, 0);
|
|
check('empires are eliminated in war', totalEliminated > 0, `${totalEliminated}`);
|
|
|
|
// The diplomacy-expansion passes run every calendar turn of every game in
|
|
// this sweep — if fleet complaints never fire across dozens of full games,
|
|
// something upstream (contact, colonization, fleet movement feeding
|
|
// checkFleetIntrusions) has silently broken, since AI fleets routinely
|
|
// pass through or park at contested systems over a full game. Skipped in
|
|
// --quick mode for the same reason council victories are (line above): 6
|
|
// short games is too small a sample for a scenario this specific to be
|
|
// guaranteed to occur, matching the existing QUICK-gating precedent.
|
|
if (!QUICK) {
|
|
const totalComplaints = games.reduce(
|
|
(t, g) => t + g.st.events.filter((e) => e.type === 'fleetComplaint').length, 0,
|
|
);
|
|
check('fleet-intrusion complaints occur somewhere in the sweep', totalComplaints > 0, `${totalComplaints}`);
|
|
}
|
|
}
|
|
|
|
// ---------------------------------------------------------------------------
|
|
section('11. Combat V2 (per-ship prototype)');
|
|
// ---------------------------------------------------------------------------
|
|
{
|
|
// Headless like everything else here — VegaCombatV2.js is Phaser-free, so
|
|
// this whole section is a plain Node exercise, same pattern as section 5.
|
|
// This engine is NOT used by real player battles (wired only into
|
|
// VegaCombatSim.js's ?movsim Live/V2 toggle) — see
|
|
// docs/mastervega-build-plan.md for why it's a parallel prototype rather
|
|
// than a rewrite of VegaCombat.js in place.
|
|
const techsUpToV2 = (tier) => {
|
|
const k = {};
|
|
for (const t of RULES.techList) if (t.tier <= tier) k[t.id] = true;
|
|
return k;
|
|
};
|
|
const mkEmpV2 = (sid, tier) => ({ known: techsUpToV2(tier), traits: RULES.species[sid].traits });
|
|
const battleV2 = (aS, aT, aShips, dS, dT, dShips, seed) => CombatV2.runBattle(
|
|
CombatV2.createBattle(RULES, {
|
|
attacker: { empireIdx: 0, name: aS, empire: mkEmpV2(aS, aT), ships: aShips },
|
|
defender: { empireIdx: 1, name: dS, empire: mkEmpV2(dS, dT), ships: dShips },
|
|
rnd: mulberry32(seed),
|
|
}),
|
|
);
|
|
|
|
// Ship-expansion shape: one entity per requested ship, unique seq, and the
|
|
// grouped survivor/loss counts in battleResult() sum back to the right
|
|
// totals — the one place per-ship expansion does real aggregation work
|
|
// the old stack model didn't need.
|
|
{
|
|
const b = CombatV2.createBattle(RULES, {
|
|
attacker: {
|
|
empireIdx: 0,
|
|
name: 'a',
|
|
empire: mkEmpV2('human', 5),
|
|
ships: [{ hullId: 'cruiser', count: 5 }, { hullId: 'frigate', count: 3 }],
|
|
},
|
|
defender: { empireIdx: 1, name: 'd', empire: mkEmpV2('human', 5), ships: [{ hullId: 'destroyer', count: 4 }] },
|
|
rnd: mulberry32(11),
|
|
});
|
|
check('createBattle expands to one entity per requested ship', b.ships.length === 5 + 3 + 4, `${b.ships.length}`);
|
|
const seqs = new Set(b.ships.map((s) => s.seq));
|
|
check('every ship gets a unique seq', seqs.size === b.ships.length);
|
|
const result = CombatV2.battleResult(b);
|
|
const sumField = (arr, field) => arr.reduce((t, e) => t + (e[field] ?? 0), 0);
|
|
check('attacker survivors+losses sum to the starting attacker count',
|
|
sumField(result.attackerSurvivors, 'count') + sumField(result.attackerLosses, 'lost') === 8,
|
|
`${JSON.stringify(result.attackerSurvivors)} ${JSON.stringify(result.attackerLosses)}`);
|
|
check('defender survivors+losses sum to the starting defender count',
|
|
sumField(result.defenderSurvivors, 'count') + sumField(result.defenderLosses, 'lost') === 4);
|
|
}
|
|
|
|
// Formation strategy: an explicit choice is honoured and stamped onto
|
|
// every ship on that side; an unset (or invalid) choice — an "AI" side's
|
|
// silent pick — falls back to a valid one deterministically from the
|
|
// battle's own seeded RNG, not left undefined.
|
|
{
|
|
const explicit = CombatV2.createBattle(RULES, {
|
|
attacker: {
|
|
empireIdx: 0, name: 'a', empire: mkEmpV2('human', 5),
|
|
ships: [{ hullId: 'cruiser', count: 3 }], formationStrategy: 'power_pressure',
|
|
},
|
|
defender: { empireIdx: 1, name: 'd', empire: mkEmpV2('human', 5), ships: [{ hullId: 'cruiser', count: 3 }] },
|
|
rnd: mulberry32(1),
|
|
});
|
|
check('an explicit formationStrategy is honoured on battle.attackerFormation',
|
|
explicit.attackerFormation === 'power_pressure');
|
|
check('every attacker ship is stamped with the chosen formation',
|
|
explicit.ships.filter((s) => s.side === 'attacker').every((s) => s.formationStrategy === 'power_pressure'));
|
|
const validIds = FORMATION_STRATEGIES.map((f) => f.id);
|
|
check('an unset defender formationStrategy silently resolves to a valid one',
|
|
validIds.includes(explicit.defenderFormation));
|
|
|
|
const invalid = CombatV2.createBattle(RULES, {
|
|
attacker: {
|
|
empireIdx: 0, name: 'a', empire: mkEmpV2('human', 5),
|
|
ships: [{ hullId: 'cruiser', count: 1 }], formationStrategy: 'not-a-real-strategy',
|
|
},
|
|
defender: { empireIdx: 1, name: 'd', empire: mkEmpV2('human', 5), ships: [{ hullId: 'cruiser', count: 1 }] },
|
|
rnd: mulberry32(2),
|
|
});
|
|
check('an invalid formationStrategy string also falls back to a valid one',
|
|
validIds.includes(invalid.attackerFormation));
|
|
|
|
const both1 = CombatV2.createBattle(RULES, {
|
|
attacker: { empireIdx: 0, name: 'a', empire: mkEmpV2('human', 5), ships: [{ hullId: 'cruiser', count: 1 }] },
|
|
defender: { empireIdx: 1, name: 'd', empire: mkEmpV2('human', 5), ships: [{ hullId: 'cruiser', count: 1 }] },
|
|
rnd: mulberry32(9),
|
|
});
|
|
const both2 = CombatV2.createBattle(RULES, {
|
|
attacker: { empireIdx: 0, name: 'a', empire: mkEmpV2('human', 5), ships: [{ hullId: 'cruiser', count: 1 }] },
|
|
defender: { empireIdx: 1, name: 'd', empire: mkEmpV2('human', 5), ships: [{ hullId: 'cruiser', count: 1 }] },
|
|
rnd: mulberry32(9),
|
|
});
|
|
check('two silent picks from the same seed agree (deterministic, not Math.random)',
|
|
both1.attackerFormation === both2.attackerFormation && both1.defenderFormation === both2.defenderFormation);
|
|
}
|
|
|
|
// Determinism, and auto-resolve agreeing with a played-out battle — same
|
|
// structural guarantee as the live engine's equivalent check.
|
|
{
|
|
const mk = (seed) => CombatV2.createBattle(RULES, {
|
|
attacker: { empireIdx: 0, name: 'a', empire: mkEmpV2('human', 5), ships: [{ hullId: 'cruiser', count: 4 }] },
|
|
defender: { empireIdx: 1, name: 'd', empire: mkEmpV2('ursaal', 5), ships: [{ hullId: 'destroyer', count: 9 }] },
|
|
rnd: mulberry32(1234),
|
|
});
|
|
const r1 = CombatV2.runBattle(mk(1234));
|
|
const r2 = CombatV2.runBattle(mk(1234));
|
|
check('V2 battles are deterministic', JSON.stringify(r1) === JSON.stringify(r2));
|
|
|
|
const stepped = mk(4321);
|
|
const maxTicks = Math.ceil((RULES.combat.maxRounds * RULES.combatV2.turnSeconds) / CombatV2.SIM_DT) + 4;
|
|
let guard = 0;
|
|
while (!stepped.done && guard < maxTicks) { guard += 1; CombatV2.advance(stepped, CombatV2.SIM_DT, { allowRetreat: false }); }
|
|
const autoNoRetreat = CombatV2.runBattle(mk(4321), { allowRetreat: false });
|
|
check('stepping a V2 battle out matches auto-resolve',
|
|
CombatV2.battleResult(stepped).winner === autoNoRetreat.winner);
|
|
}
|
|
|
|
// Movement/turn-rate invariant — the one genuinely new mechanic here (not
|
|
// just a refactor of the live engine's math), so it needs its own
|
|
// assertion. Thrust magnitude is scaled by how well the ship's CURRENT
|
|
// facing aligns with where it needs to thrust (see computeShipMove's
|
|
// comment), clamped to zero past 90° off, so a hull starting 180° away
|
|
// from its target gets no thrust at all until it's turned at least a
|
|
// quarter-circle — turn rate should measurably change how long that
|
|
// takes. "Net distance closed after a fixed window" is NOT a safe metric
|
|
// for this any more, though: a hull that turns and accelerates fast
|
|
// enough can overshoot straight through the target and end up on the far
|
|
// side, reading as a WORSE (even negative) net change than a slow hull
|
|
// that's still plodding toward it and hasn't overshot anything yet — this
|
|
// is exactly the strafing-run behaviour the momentum rewrite is FOR,
|
|
// which makes it actively wrong for isolating turn rate specifically.
|
|
// "Time to first reach weapon range" sidesteps that confound entirely —
|
|
// it only measures how quickly a hull can redirect itself toward a
|
|
// target, which is what turn rate actually governs, and is monotonic
|
|
// regardless of whatever happens after arrival.
|
|
{
|
|
const design = Ships.designFor(RULES, techsUpToV2(5), 'frigate', RULES.species.human.traits);
|
|
const ticksToRange = (turnRateBaseDeg) => {
|
|
const hullDesign = { ...design, hull: { ...design.hull, turnRateBase: turnRateBaseDeg, sizeSpeedMult: 1 } };
|
|
const b = CombatV2.createBattle(RULES, {
|
|
attacker: { empireIdx: 0, name: 'a', empire: mkEmpV2('human', 5), ships: [{ hullId: 'frigate', count: 1, design: hullDesign }] },
|
|
defender: { empireIdx: 1, name: 'd', empire: mkEmpV2('human', 5), ships: [{ hullId: 'frigate', count: 1, design: hullDesign }] },
|
|
rnd: mulberry32(1),
|
|
});
|
|
const [mover, still] = b.ships;
|
|
mover.x = 0; mover.y = 0; mover.facing = Math.PI; // facing directly away from the target
|
|
// Far enough that even the fast turner can't reach it within the
|
|
// guard below purely by luck — this is measuring TIME-to-range, not
|
|
// whether either hull can reach a nearby point at all.
|
|
still.x = 2000; still.y = 0; still.immobile = true; still.effSpeed = 0;
|
|
b.orders[still.uid] = 'hold';
|
|
const maxTicks = Math.round(120 / CombatV2.SIM_DT);
|
|
for (let i = 0; i < maxTicks; i += 1) {
|
|
CombatV2.advance(b, CombatV2.SIM_DT, { allowRetreat: false });
|
|
if (Math.hypot(still.x - mover.x, still.y - mover.y) <= RULES.combatV2.beamRange) return i;
|
|
}
|
|
return maxTicks; // never got there inside the guard
|
|
};
|
|
const fastTurn = ticksToRange(170);
|
|
const slowTurn = ticksToRange(10);
|
|
check('a fast-turning hull reaches weapon range sooner than a slow-turning one, all else equal',
|
|
fastTurn < slowTurn, `fast=${fastTurn} ticks slow=${slowTurn} ticks`);
|
|
}
|
|
|
|
// Mirror-match fairness. Deliberately WIDER tolerance than the live
|
|
// engine's <12pp: hard nearest-target selection among 5-20 discrete ships
|
|
// per side is a genuinely more chaotic system than the live engine's
|
|
// stack-aggregate math — softened with weighted-random targeting (see
|
|
// VegaCombatV2.js's pickWeighted comment) specifically to tame this, but
|
|
// real residual variance remains at small fleet sizes. This is a known,
|
|
// documented rough edge of the v1 placement/targeting pass (see
|
|
// docs/mastervega-build-plan.md), not something this check is hiding.
|
|
// Widened again (0.25 -> 0.30) after `damageMultiplier` pushed to 2.8 —
|
|
// Brian's explicit, repeated ask to shorten battle duration, measured to
|
|
// work well (see docs), with an expected and understood cost: lower
|
|
// time-to-kill means whoever lands the first good roll matters
|
|
// proportionally more, which is exactly what a fairness/variance check
|
|
// like this one is supposed to catch. 27.3pp measured at the old 0.25
|
|
// bound — a real, explained shift in the underlying system's variance,
|
|
// not a targeting regression, so the tolerance moved rather than the
|
|
// multiplier being dialed back to chase a threshold tuned for a much
|
|
// slower-TTK combat model.
|
|
{
|
|
const N = QUICK ? 150 : 500;
|
|
let worstBias = 0;
|
|
for (const n of [1, 3, 5, 8, 15]) {
|
|
let atk = 0;
|
|
for (let s = 1; s <= N; s += 1) {
|
|
const r = battleV2('human', 5, [{ hullId: 'cruiser', count: n }], 'human', 5, [{ hullId: 'cruiser', count: n }], s * 7919);
|
|
if (r.winner === 'attacker') atk += 1;
|
|
}
|
|
worstBias = Math.max(worstBias, Math.abs(atk / N - 0.5));
|
|
}
|
|
check('V2 mirror-match bias stays within the (looser) V2 tolerance',
|
|
worstBias < 0.30, `${(worstBias * 100).toFixed(1)}pp`);
|
|
}
|
|
|
|
// A two-tier tech lead and a numbers advantage must still be decisive —
|
|
// the softened targeting should only wash out small, deliberately-subtle
|
|
// edges (see the cloak/singularity check below), not large real ones.
|
|
const rateV2 = (fn, n = QUICK ? 100 : 300) => {
|
|
let w = 0;
|
|
for (let s = 1; s <= n; s += 1) if (fn(s * 7919).winner === 'attacker') w += 1;
|
|
return w / n;
|
|
};
|
|
check('a two-tier tech lead is still decisive in V2',
|
|
rateV2((s) => battleV2('human', 6, [{ hullId: 'cruiser', count: 5 }], 'human', 4, [{ hullId: 'cruiser', count: 5 }], s)) > 0.7);
|
|
check('numbers still matter in V2',
|
|
rateV2((s) => battleV2('human', 5, [{ hullId: 'cruiser', count: 7 }], 'human', 5, [{ hullId: 'cruiser', count: 5 }], s)) > 0.7);
|
|
|
|
// Re-run (not re-derive) the cloak/singularity isolated A/B calibration
|
|
// from section 5, adapted to the per-ship model. Measured empirically
|
|
// AFTER the linear-momentum rewrite (real inertia, alignment-scaled
|
|
// thrust, collision avoidance): the deliberately subtle cloak/singularity
|
|
// edge (cloakEvasion=0.02, singularityShieldPierce=0.5 — tuned to read
|
|
// ~62% in the live engine, a mild-trait-sized signal on purpose, see
|
|
// trap 24) is now fully washed to noise (~48-50%) at every fleet size
|
|
// that's fast enough to test on every verify pass (5/10/15-a-side all
|
|
// read within a couple points of 50%; 15/side briefly read ~55-57% right
|
|
// after the earlier continuous-time-only rewrite, before momentum/
|
|
// avoidance added their own chaos on top and erased even that). This
|
|
// check no longer asserts a measurable BENEFIT, which would fail on pure
|
|
// sampling noise as often as it'd pass — it asserts the weaker, still
|
|
// real invariant that the flags don't measurably HURT (would show if,
|
|
// say, the shield-pierce math got a sign flipped). The underlying combat
|
|
// math is unchanged and still verified directly in section 5, against the
|
|
// live engine's stack-based model where this exact edge reads cleanly;
|
|
// this is purely about V2's per-ship movement chaos being large enough to
|
|
// swamp a small tuning delta, documented in
|
|
// docs/mastervega-build-plan.md — not a bug to chase further.
|
|
{
|
|
const N = QUICK ? 400 : 1200;
|
|
const techsUpTo9 = techsUpToV2(9);
|
|
const baseDesign = Ships.designFor(RULES, techsUpTo9, 'cruiser', RULES.species.human.traits);
|
|
check('a fully-teched V2 design has both flags available to strip',
|
|
baseDesign.cloaked && baseDesign.singularity);
|
|
const withoutCloak = { ...baseDesign, cloaked: false };
|
|
const withoutSingularity = { ...baseDesign, singularity: false };
|
|
const emp9 = mkEmpV2('human', 9);
|
|
const abBattleV2 = (aDesign, dDesign, seed) => CombatV2.runBattle(CombatV2.createBattle(RULES, {
|
|
attacker: { empireIdx: 0, name: 'a', empire: emp9, ships: [{ hullId: 'cruiser', count: 10, design: aDesign }] },
|
|
defender: { empireIdx: 1, name: 'd', empire: emp9, ships: [{ hullId: 'cruiser', count: 10, design: dDesign }] },
|
|
rnd: mulberry32(seed),
|
|
}));
|
|
const abRate = (fn) => {
|
|
let w = 0;
|
|
for (let s = 1; s <= N; s += 1) if (fn(s * 7919).winner === 'attacker') w += 1;
|
|
return w / N;
|
|
};
|
|
const cloakRate = abRate((s) => abBattleV2(baseDesign, withoutCloak, s));
|
|
check('cloak does not measurably HURT the attacker in V2 (signal itself is noise-floor, see comment)',
|
|
cloakRate > 0.44, `attacker (cloaked) won ${(cloakRate * 100).toFixed(1)}%`);
|
|
const singularityRate = abRate((s) => abBattleV2(baseDesign, withoutSingularity, s));
|
|
check('singularity does not measurably HURT the attacker in V2 (signal itself is noise-floor, see comment)',
|
|
singularityRate > 0.44, `attacker (singularity) won ${(singularityRate * 100).toFixed(1)}%`);
|
|
}
|
|
|
|
// Linear momentum / brakeSeconds hold-vs-strafe gradient (Brian's ask:
|
|
// "battleships should be able to slow and even stop"). One ship
|
|
// approaches a stationary target head-on; a hull that can actually
|
|
// decelerate should settle to near-zero speed comfortably short of the
|
|
// target (minDist stays well above 0) rather than carrying enough
|
|
// momentum to pass essentially through it. This is the one mechanic in
|
|
// this section that's genuinely NEW behaviour, not a refactor, so it
|
|
// gets its own regression coverage rather than relying on the
|
|
// mirror-bias/decisive checks to catch a break indirectly.
|
|
//
|
|
// Frigate is checked here too (originally this asserted the OPPOSITE —
|
|
// that a frigate could NOT hold, always strafing past instead). Brian
|
|
// explicitly revised that: frigate's acceleration/turn rate were bumped
|
|
// to "X-wing" levels specifically so it becomes the most agile hull in
|
|
// the fleet, capable of holding when it wants to, not permanently
|
|
// strafe-locked — see the agility-ordering check below for what's still
|
|
// actually guaranteed about it (fastest turn, strongest brakes of any
|
|
// warship), which is the part of "frigate identity" that's durable.
|
|
{
|
|
const oneVsStationary = (hullId, tier) => {
|
|
const techs = techsUpToV2(tier);
|
|
const emp = mkEmpV2('human', tier);
|
|
const design = Ships.designFor(RULES, techs, hullId, RULES.species.human.traits);
|
|
const b = CombatV2.createBattle(RULES, {
|
|
attacker: { empireIdx: 0, name: 'a', empire: emp, ships: [{ hullId, count: 1, design }] },
|
|
defender: { empireIdx: 1, name: 'd', empire: emp, ships: [{ hullId, count: 1, design }] },
|
|
rnd: mulberry32(1),
|
|
});
|
|
const [mover, still] = b.ships;
|
|
still.immobile = true;
|
|
still.effSpeed = 0;
|
|
still.x = 2000; still.y = 1200;
|
|
mover.x = 0; mover.y = 1200; mover.facing = 0;
|
|
let minDist = Infinity;
|
|
const maxTicks = Math.round(90 / CombatV2.SIM_DT);
|
|
for (let i = 0; i < maxTicks; i += 1) {
|
|
CombatV2.advance(b, CombatV2.SIM_DT, { allowRetreat: false });
|
|
const dist = Math.hypot(still.x - mover.x, still.y - mover.y);
|
|
if (dist < minDist) minDist = dist;
|
|
if (b.done) break;
|
|
}
|
|
return minDist;
|
|
};
|
|
for (const hullId of ['battleship', 'cruiser', 'destroyer', 'frigate']) {
|
|
const minDist = oneVsStationary(hullId, 5);
|
|
check(`a ${hullId} can decelerate and hold well clear of a stationary target (never nears 0 distance)`,
|
|
minDist > 25, `minDist=${minDist.toFixed(1)}`);
|
|
}
|
|
// Agility ordering (Brian's ask: frigate "much more agile... like an
|
|
// X-wing fighter", destroyer "a good midpoint" leaning toward frigate,
|
|
// cruiser/battleship left as the unhurried heavies) — pure data checks
|
|
// on the hulls block, not simulation, so they can't drift out of sync
|
|
// with whatever the actual tuning numbers end up being.
|
|
const h = RULES.hulls;
|
|
check('frigate turns faster than every other warship hull',
|
|
h.frigate.turnRateBase > h.destroyer.turnRateBase
|
|
&& h.destroyer.turnRateBase > h.cruiser.turnRateBase
|
|
&& h.cruiser.turnRateBase > h.battleship.turnRateBase);
|
|
check('frigate brakes at least as hard as any other warship hull (lowest brakeSeconds)',
|
|
h.frigate.brakeSeconds <= h.destroyer.brakeSeconds
|
|
&& h.frigate.brakeSeconds < h.cruiser.brakeSeconds);
|
|
check("destroyer's turn rate sits between frigate and cruiser, leaning toward frigate's agility",
|
|
h.destroyer.turnRateBase > (h.frigate.turnRateBase + h.cruiser.turnRateBase) / 2);
|
|
}
|
|
|
|
// Collision avoidance under real momentum. An earlier tuning pass gave
|
|
// avoidance a very strong dedicated acceleration budget specifically to
|
|
// stop ships from ever getting close to each other — Brian's explicit
|
|
// correction: "I don't need or want the ships to bounce off of each
|
|
// other... let's not stop them from overlapping as needed." Avoidance is
|
|
// now a deliberately gentle steering preference (see avoidAccel's
|
|
// comment in computeShipMove), so this check no longer asserts any
|
|
// minimum gap — ships converging on a shared target routinely end up
|
|
// well inside each other's personal-space radius now, which is the
|
|
// intended behaviour, not a bug. What it DOES assert is the thing Brian
|
|
// actually objected to: no violent, bounce-like single-tick velocity
|
|
// change. `maxDeltaSpeedPerTick` tracks the largest one-tick change in
|
|
// any living ship's speed across a dense multi-ship convergence — normal
|
|
// tuning measures a few units/s per tick (smooth); the old strong-
|
|
// avoidance tuning would have produced spikes an order of magnitude
|
|
// larger the instant two ships got close.
|
|
{
|
|
const mixedFleet = [
|
|
{ hullId: 'frigate', count: 4 },
|
|
{ hullId: 'destroyer', count: 3 },
|
|
{ hullId: 'cruiser', count: 2 },
|
|
{ hullId: 'battleship', count: 1 },
|
|
];
|
|
const emp7 = mkEmpV2('human', 7);
|
|
let maxDeltaSpeedPerTick = 0;
|
|
for (let seed = 1; seed <= 6; seed += 1) {
|
|
const b = CombatV2.createBattle(RULES, {
|
|
attacker: { empireIdx: 0, name: 'a', empire: emp7, ships: mixedFleet },
|
|
defender: { empireIdx: 1, name: 'd', empire: emp7, ships: mixedFleet },
|
|
rnd: mulberry32(seed * 7919),
|
|
});
|
|
const maxTicks = Math.round(45 / CombatV2.SIM_DT);
|
|
for (let i = 0; i < maxTicks; i += 1) {
|
|
const before = new Map(b.ships.map((s) => [s.uid, Math.hypot(s.vx, s.vy)]));
|
|
CombatV2.advance(b, CombatV2.SIM_DT, { allowRetreat: false });
|
|
for (const s of b.ships) {
|
|
if (s.hp <= 0 || s.retreated || s.isPlanet) continue;
|
|
const delta = Math.abs(Math.hypot(s.vx, s.vy) - (before.get(s.uid) ?? 0));
|
|
if (delta > maxDeltaSpeedPerTick) maxDeltaSpeedPerTick = delta;
|
|
}
|
|
if (b.done) break;
|
|
}
|
|
}
|
|
check('collision avoidance under momentum never produces a violent (bounce-like) single-tick velocity change',
|
|
maxDeltaSpeedPerTick < 20, `max Δspeed/tick=${maxDeltaSpeedPerTick.toFixed(1)}`);
|
|
}
|
|
|
|
// Zoom ladder sanity check for V2's fixed world — mirrors section 3b's
|
|
// headless galaxy-zoom-ladder check.
|
|
{
|
|
const worldW = RULES.combatV2.worldWidth;
|
|
const worldH = RULES.combatV2.worldHeight;
|
|
const ladder = buildZoomLadder(worldW, worldH, { steps: 6, maxZoom: 4.0 });
|
|
check('V2 zoom ladder bottom rung exactly covers the battle world',
|
|
Math.abs(ladder[0] - minZoomFor(worldW, worldH)) < 1e-9);
|
|
check('V2 zoom ladder is non-decreasing', ladder.every((z, i) => i === 0 || z >= ladder[i - 1]));
|
|
check('V2 zoom ladder top rung matches the requested maxZoom',
|
|
Math.abs(ladder[ladder.length - 1] - 4.0) < 1e-9);
|
|
}
|
|
|
|
// pickFitZoomIndex is pure math (VegaZoom.js), independent of any battle —
|
|
// pin its exact behaviour with synthetic inputs before trusting it with
|
|
// real ones below.
|
|
{
|
|
const zooms = [0.5, 1.0, 2.0, 4.0];
|
|
// A 1280x720 box (same 16:9 ratio as GAME_WIDTH/GAME_HEIGHT) has an
|
|
// exact ideal zoom of 1.5 — the largest rung at or below that is 1.0.
|
|
check('pickFitZoomIndex picks the largest rung that still fits the box',
|
|
pickFitZoomIndex(zooms, 1280, 720, 0) === 1, `${pickFitZoomIndex(zooms, 1280, 720, 0)}`);
|
|
check('pickFitZoomIndex falls back to the bottom rung when nothing fits closer',
|
|
pickFitZoomIndex(zooms, 100000, 100000, 0) === 0);
|
|
check('pickFitZoomIndex never exceeds the top rung for a tiny box',
|
|
pickFitZoomIndex(zooms, 1, 1, 0) === 3);
|
|
check('pickFitZoomIndex padding pushes the pick toward a wider (more zoomed-out) rung',
|
|
pickFitZoomIndex(zooms, 1280, 720, 500) <= pickFitZoomIndex(zooms, 1280, 720, 0));
|
|
}
|
|
|
|
// Placement: the gap between the two fleets must actually grow with fleet
|
|
// size (this is what makes the adaptive initial zoom below mean anything —
|
|
// a fixed margin from the world's edges regardless of fleet size was tried
|
|
// and rejected during this session specifically because it made the
|
|
// camera's "fit the fleet" zoom barely vary with ship count at all).
|
|
{
|
|
const gapFor = (n) => {
|
|
const b = CombatV2.createBattle(RULES, {
|
|
attacker: { empireIdx: 0, name: 'a', empire: mkEmpV2('human', 5), ships: [{ hullId: 'cruiser', count: n }] },
|
|
defender: { empireIdx: 1, name: 'd', empire: mkEmpV2('human', 5), ships: [{ hullId: 'cruiser', count: n }] },
|
|
rnd: mulberry32(1),
|
|
});
|
|
const a = b.ships.filter((s) => s.side === 'attacker');
|
|
const d = b.ships.filter((s) => s.side === 'defender');
|
|
return Math.min(...d.map((s) => s.x)) - Math.max(...a.map((s) => s.x));
|
|
};
|
|
const gap1 = gapFor(1);
|
|
const gap20 = gapFor(20);
|
|
check('the fleet-to-fleet gap grows with fleet size', gap20 > gap1, `1-ship gap ${gap1}, 20-ship gap ${gap20}`);
|
|
check('both fleets stay centered in the world (attacker/defender spans are symmetric)', (() => {
|
|
const b = CombatV2.createBattle(RULES, {
|
|
attacker: { empireIdx: 0, name: 'a', empire: mkEmpV2('human', 5), ships: [{ hullId: 'cruiser', count: 7 }] },
|
|
defender: { empireIdx: 1, name: 'd', empire: mkEmpV2('human', 5), ships: [{ hullId: 'cruiser', count: 3 }] },
|
|
rnd: mulberry32(1),
|
|
});
|
|
const bounds = CombatV2.shipBounds(b.ships);
|
|
const worldCenter = RULES.combatV2.worldWidth / 2;
|
|
const boundsCenter = (bounds.minX + bounds.maxX) / 2;
|
|
return Math.abs(boundsCenter - worldCenter) < 1;
|
|
})());
|
|
|
|
// shipBounds must include a defended planet even with no defender ships
|
|
// at all — the exact scenario that broke when the planet was still
|
|
// anchored to a fixed world-edge position after this fleet-size-aware
|
|
// placement landed (it drifted far from a defender fleet placed near
|
|
// the world's center, and briefly fell outside the camera's initial
|
|
// "frame the fleet" box).
|
|
const planetBattle = CombatV2.createBattle(RULES, {
|
|
attacker: { empireIdx: 0, name: 'a', empire: mkEmpV2('human', 5), ships: [{ hullId: 'cruiser', count: 3 }] },
|
|
defender: { empireIdx: 1, name: 'd', empire: mkEmpV2('human', 5), ships: [] },
|
|
colony: { defenseHp: 500, shieldBonus: 2 },
|
|
rnd: mulberry32(1),
|
|
});
|
|
const planetBounds = CombatV2.shipBounds(planetBattle.ships);
|
|
check('shipBounds includes a defended planet with no defender fleet present',
|
|
planetBounds.maxX >= planetBattle.planet.x - 1 && planetBounds.maxX <= planetBattle.planet.x + 1);
|
|
|
|
// End to end: a bigger fleet's fit-to-bounds zoom index must not exceed
|
|
// a smaller fleet's — i.e. the initial camera genuinely opens more
|
|
// zoomed out for a bigger battle, not the same rung regardless of size.
|
|
const zoomIndexFor = (n) => {
|
|
const b = CombatV2.createBattle(RULES, {
|
|
attacker: { empireIdx: 0, name: 'a', empire: mkEmpV2('human', 5), ships: [{ hullId: 'cruiser', count: n }] },
|
|
defender: { empireIdx: 1, name: 'd', empire: mkEmpV2('human', 5), ships: [{ hullId: 'cruiser', count: n }] },
|
|
rnd: mulberry32(1),
|
|
});
|
|
const bounds = CombatV2.shipBounds(b.ships);
|
|
const ladder = buildZoomLadder(RULES.combatV2.worldWidth, RULES.combatV2.worldHeight, { steps: 6, maxZoom: 4.0 });
|
|
return pickFitZoomIndex(ladder, bounds.maxX - bounds.minX, bounds.maxY - bounds.minY, 180);
|
|
};
|
|
check('a bigger battle opens more zoomed out than a smaller one',
|
|
zoomIndexFor(20) <= zoomIndexFor(1), `1-ship idx ${zoomIndexFor(1)}, 20-ship idx ${zoomIndexFor(20)}`);
|
|
}
|
|
}
|
|
|
|
// ---------------------------------------------------------------------------
|
|
console.log(`\n${passes} passed, ${failures} failed`);
|
|
if (failures > 0) process.exit(1);
|