Plant–herbivore coevolution (toxin/thorns ↔ tolerance, smart avoidance, costs),
RimWorld-style health capacities wired to behaviour, senescence, and birth-type
genes (live-bearing vs egg-laying with eggs) + hybrid-creation foundation.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
GeneEggLaying (species-fixed) selects the conception cycle: viviparous animals
carry to a live birth (existing path); oviparous animals, after the same gravid
period, LAY eggs instead. New Egg entity (carries the already-bred offspring
genome) + EggSystem incubates and hatches it into a baby. AnimalPregnancySystem
branches on the mother's birth type. Adds an oviparous showcase species, Chicken.
Eggs are serialized (WorldSave.Eggs) like corpses, so clutches survive save/load.
Also lays the foundation for creating any species or hybrid (full command/UI
deferred): AnimalSet.HybridGenome(base, other) produces a cross anchored to a
base species' body/gene-set with shared genes blended Mendelian-style — so
Create(species, GenerateGenome) makes any species and Create(species,
HybridGenome) makes any hybrid.
EggTexture on AnimalDef (defaults to the seed dot placeholder); reproduction line
added to the `animal` console command. Build + --check-content clean (41 genes,
40 traits). Not GUI-verified.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
GeneLifespan already set the moment of death from old age; now aging actually
manifests before it. RecomputeCapacities takes a capacityScale; AnimalHealthSystem
applies SenescenceFactor(age, lifespan) — capacities fade from 60% of lifespan to
~0.55× near the end, so old animals move/see/filter blood worse and are frailer.
Fertility falls with the same factor (smaller litters), and past 90% of lifespan
females no longer conceive (post-reproductive). Makes GeneLifespan and the Senior
stage meaningful. Build clean.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Eating (jaw) scales graze bite and Digestion×Eating scales satiety gained from
food (plant grazing and corpse scavenging via Refill efficiency). A damaged jaw
or sick gut means less nutrition per feeding, so the animal must eat more often.
Completes wiring the new health capacities to behaviour; Talking remains an
indicator (no social system yet). Build clean.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
The expanded capacities were mostly display-only; make two of them affect the
simulation (Moving→speed and Consciousness→intelligence gating already existed):
- Blood filtration → toxin/disease clearance: AdvanceHediffs takes an immunity
scale (default 1); AnimalHealthSystem passes the BloodFiltration capacity, so
damaged kidneys/liver clear Poisoned and diseases slower (RimWorld model).
Ties the new capacities to the coevolution work — weak filtration makes toxic
plants deadlier.
- Sight/hearing → perception radius: foraging, hunting and mate search scale by
Sight; threat detection (flee) scales by max(Sight, Hearing) — you see or hear
a predator. Injured eyes/ears shrink awareness.
Eating/Talking/Digestion remain indicators for now. Build + --check-content
clean. Not GUI-verified.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Adds the first plant↔animal coupling beyond "herbivore eats plant": a toxin/
thorns ↔ tolerance arms race built on the existing gene + hediff engines, plus
the fuller RimWorld capacity set on the health scaffold.
Coevolution C1 — plant defense → poisons/injures the eater:
- Plant genes GeneToxicity/GeneThorns/GenePalatability (GenomeDef + PlantSet
template + PlantPhenotype); animal gene GeneToxinTolerance.
- Hediff Poisoned (non-progressing; grows from eating via HealthState.Intensify,
immunity heals it, overdose is lethal).
- AnimalActionSystem.ApplyPlantDefense on each bite: poison dose =
toxicity × (1 − tolerance); thorns → ApplyInjury (reuses predator-cluster).
- Cost of defense: PlantGrowthSystem growth ×= DefenseGrowthFactor()
(1 − 0.4·toxicity − 0.3·thorns) — without a cost defense would max out and
coevolution would stall.
- Showcase: cactus thorns, poisonous mushroom; grass starts clean so toxicity
can evolve on the staple. Deer/boar get small starting tolerance.
Coevolution C2 — discrimination + the other half of the arms race:
- Smart foraging (reuses A7 intelligence gating): herbivores with effective
intelligence ≥ tier-4 weigh plants by palatability − perceived-toxin −
distance; reflex grazers (or sick animals with dropped consciousness) eat the
nearest plant and risk poison.
- Cost of tolerance: detox raises metabolism (need decay ×= 1 + 0.5·tolerance),
closing the arms race so tolerance doesn't fix at 1.
- popstats reports mean toxinTolerance and a plants line (mean toxicity/thorns/
palatability) to watch the drift.
Health capacities (RimWorld parity, user-requested):
- New capacities BloodFiltration/Hearing/Talking/Eating; CapacityCalc rewritten
to emit only capacities the body declares (a destroyed organ still shows 0%)
with the full dependency chain (blood → pumping/breathing/filtration →
consciousness → moving/sight/hearing/talking/eating, digestion).
- Quadruped body gains kidneys + liver (filtration), ears (hearing), jaw/tongue
(eating/talking). Inspector health tab lists all of a body's capacities.
Localization (ru/en) for new genes' defense line, Poisoned, and the new
capacity labels. Build + --check-content clean (11 def types, 40 genes,
39 traits). Not GUI-verified (headless can't render the world scene).
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Brings the full animal foundation onto main and folds its new defs into the
Defs/ subfolder layout introduced on main:
- animal genes -> Defs/Genes/Animal.json (split out of genes.json)
- animals/bodies/hediffs/needs/thoughts -> own Defs/<Type>/ subfolders
- ProductMeat/Bone/Leather + bigger world presets auto-merged via rename detection
- PawnDef un-sealed (AnimalDef : PawnDef); def-location doc comments updated to subfolders
- engine pointer kept at main's newer 96e19c7 (only adds directional sun shadows)
Build + --check-content clean: 11 def types, 33 genes, 35 plants, 32 traits.
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
Закрывает сквозное требование плана (сейв/лоад данных каждой фазы). WorldSave получил Animals (AnimalSave: геном+пол, поколение, стадия/возраст, нужды, здоровье — кровь/HP частей/хедифы, настроение+мысли, беременность+геном отца) и Corpses (CorpseSave). SaveAnimals снимает популяцию (Health/Mood/Pregnant через entity); RestoreAnimals/RestoreAnimalState собирают особь фабрикой из генома + накладывают состояние (ref-правки до AddComponent(Pregnant); труп пере-тинтится через Stage=-1). Corpse получил Species; CreateCorpse принимает индекс вида + HealthState.AddHediff(def,severity,immunity). На загрузке стадо не пересыпается при наличии животных в сейве; старый/пустой сейв регенерируется из сида. Сборка + --check-content чистые.
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
Эффективный интеллект = brainSize (ген) × Consciousness (capacity из здоровья), AnimalFactory.Intelligence. AnimalContext гейтит выбор ИИ: нужда с minBrain выше интеллекта особи в выбор не входит (AnimalDecisionSystem читает Health поэлементно). Пороги в needs.json — тиры мозга (голод 0.0, жажда 0.25, сон/секс 0.40; у оленя мозг ~0.45). Обратная связь от повреждения мозга: болезнь/боль/кровопотеря роняют сознание → интеллект падает → первыми отключаются сон/спаривание. Команда intel <species> [consciousness]. Сборка + --check-content чистые.
Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
HediffDef расширен (initialSeverity/severityPerDay/immunityPerDay/lethalSeverity/pain/ambientPerDay/capMods); хедифы стали инстансами (Hediff: тяжесть+иммунитет). AnimalHealthSystem (медленный тик ~час): фоновое заражение, гонка тяжесть<->иммунитет (выздоровление при иммунитете 1 / смерть при летальной тяжести), пересчёт способностей с болью и capMods; смерть по здоровью оставляет труп. Первый реальный источник урона: Moving подключён к скорости (больные медленнее). Болезнь Fever; команда infect для теста.
Сборка чистая, --check-content (10 типов дефов).
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
BodyDef/BodyPartDef + bodies.json (Quadruped — данные: иерархия органов, вклады в способности). AnimalDef.Body. HealthState расширен Parts/BloodLevel/Pain/Capacities; CapacityCalc обобщённо считает способности по зависимостям (кровь->сердце/лёгкие->сознание->движение/зрение), модовые проходят сырыми. Фабрика строит части (HP x размер тела) и начальные способности. Источников урона нет -> всё на полном HP, способности=1 (каркас под болезни/хищников). Команда body <species>.
Сборка чистая, --check-content (10 типов дефов).
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Компонент Corpse + CorpseSystem: после смерти животное оставляет труп (AnimalFactory.CreateCorpse, мясо ∝ размер тела) вместо деспавна; труп разлагается Fresh→Rotting→Skeleton→исчезает со скоростью от температуры, тинтуясь по стадии. AnimalDef.CorpseTexture + спрайт трупа в AnimalSet; смертность спавнит труп. Продукты мясо/кости/шкура заданы (разделка/падальщики — позже).
Сборка чистая, --check-content (9 типов дефов). Части тела/кровь/capacities — часть 2 A5.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Завершает вынос баланса в данные: AnimalDecisionSystem.VisionRadius берёт дальность из AnimalDef.VisionCells (× ген), TryFindPlant/TryFindMate принимают готовый радиус; AnimalActionSystem берёт BaseSpeed и ForageBiteDays из дефа вида (через AnimalSet). Убраны хардкод-константы скорости/зрения/выедания.
Сборка чистая, --check-content (9 типов дефов).
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Стадии стали данными: AnimalStageDef + AnimalDef.Stages (возраст входа = EnterAt x якорь maturity/lifespan, масштаб, набор текстур baby/adult, флаг adult для размножения); пусто -> встроенный дефолт Baby/Juvenile/Adult/Senior. AnimalFactory.StageAt/RegionFor/Scale/IsAdult работают по данным стадий; системы роста/решения/гона используют флаг adult вместо индекса. Спавн стал данными: AnimalDef.SpawnPer1000Cells — WorldScene рассыпает ВСЕ виды по плотности, не только захардкоженного оленя. Устраняет блокеры расширяемости #5 и #7.
Сборка чистая, --check-content (9 типов дефов).
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Нужды стали данными: NeedDef + needs.json (Hunger/Thirst/Rest/Mating), NeedSet (реестр: индексы, тип deplete/drive, поведение-исполнитель по id), динамический AnimalNeeds.Values (managed-массив — новая нужда не меняет структуру). AnimalNeedsSystem универсально считает убывание/рост по NeedDef; UtilityAi строится из NeedSet; действия исполняются по строковому id (реестр поведений) с восполнением нужды через NeedSet. Диета — AnimalDef.Diet (поиск корма гейтится). Добавить нужду/рацион виду = JSON без кода. Устраняет блокеры расширяемости #2 и #4.
Сборка чистая, --check-content (9 типов дефов).
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
AnimalGenomeDef (фикс. поля) убран; AnimalDef.Genome теперь словарь geneId->base. AnimalSet.BuildTemplate строит шаблон generically по реестру генов (разброс из самого GeneDef, дискретные поддержаны). Модер добавляет ген особи одной строкой JSON в animals.json — без правки кода. Устраняет блокер расширяемости #1.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Нужда Mating + лёгкий hediff-каркас (HediffDef, hediffs.json с Rut, Health/HealthState). Гены GeneBreedingSeason/GeneGestationDays/GeneLitterSize. AnimalRutSystem навешивает сезонный гон-хедиф взрослым и поднимает влечение (вне сезона зачатия нет). Действие Mate ищет партнёра противоположного пола и сближается; при контакте самка получает Pregnant (геном отца). AnimalPregnancySystem тикает срок и рожает помёт через Genome.Breed (пол наследуется без YY, поколение+1), с потолком численности.
Сборка чистая, --check-content (8 типов дефов, 33 гена, 32 признака).
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Компонент AnimalGrowth (стадия + возраст). Ген пола GeneSex (локус XX/XY; генерация основателя задаёт пол явно через AnimalSet.GenerateGenome, исключая невозможный YY) и GeneMaturityAge. Стадии Baby->Juvenile->Adult->Senior с порогами из генов. AnimalGrowthSystem меняет спрайт (детёныш/самец/самка) и размер по стадии; AnimalMortalitySystem — смерть от старости и истощения (деспавн), замыкает контур ёмкости среды. Стадо спавнится разновозрастным.
Сборка чистая, --check-content (30 генов, 29 признаков).
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
AnimalNeeds (голод/жажда/отдых) падают по гену метаболизма. Два слоя ИИ: AnimalDecisionSystem (движковый UtilityAi выбирает действие и ищет ближайшую еду/воду) и AnimalActionSystem (движение к цели со скоростью по гену + утоление: выедание растений с гибелью выеденной травы, питьё у кромки воды, сон). AnimalAppearanceSystem тускнеет с острой нуждой. Кромка воды считается из террейна; команда popstats для наблюдаемости дрейфа генов.
Сборка чистая. Контур ёмкости среды частичный — смерть от голода придёт в A3.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Новый тип дефа Animal (AnimalDef : PawnDef) + animals.json (Deer). 8 организм-агностичных животных генов в genes.json. AnimalPhenotype/AnimalOrganism, AnimalSet (шаблон генома вида) и AnimalFactory — зеркала растительных PlantSet/PlantFactory. Детерминированный спавн стада оленей по суше в WorldScene с рендером и тинтом меха по гену; консольная команда 'animal <species>'.
Проверено: сборка чистая, --check-content (7 типов дефов, 28 генов).
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Полный план зоологии на генетическом фундаменте: 7 столпов (гены, жизненный цикл, размножение, здоровье по модели RimWorld, мозг/интеллект, нужды, настроение), моддинг данными, фазы A1-A8 и экологический горизонт.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Points the engine submodule at f382fc9 (pushed): heartbeat liveness +
idle-timeout drop, replication protocol-version byte, reassembled-message
size cap, and ReplicationClient.Clear() for reconnect. Enables the desktop
and web clients to auto-reconnect and the server to shed dead connections.
Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
Main independently adopted the engine Core/Host split in G1, so the
scene adaptations conflicted with identical changes here — resolved in
main's favor (its scenes also carry the gene-driven world). Kept from
this branch: BootScene's --connect path into MultiplayerScene, the
buildAtlases switch in GameContent.Load (with the Task.Run lambda fix
its optional parameter requires), net.* localization keys, and the
Net/Server/Web projects in the solution. Program.cs now has both CLI
modes: --check-content (main) and --connect (here). The engine pointer
lands on d044caf, which linearly contains both lines of work.
Verified on the merged tree: 366 engine tests pass, --check-content
reports genes/traits intact, and a live --listen server replicates
moving pawns to the probe.
Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
The gene system it described (phases G1–G5) is fully implemented; the
design doc is no longer needed.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Engine pointer -> d044caf (formula gene grouping, content patches, def
field validation). Game-side demonstration of all three:
- genes.json: GeneHardiness whose effect is gsum('Gene.*Tolerance') — a
derived trait summing all tolerance genes via regex grouping.
- patches.json: a content patch giving every Bush* plant a wood harvest
product, applied to Core's own defs at load.
- GameContent registers load-time validators: Gene/Product defNames must
carry their type prefix.
- Program: a --check-content headless mode that loads all mod defs (running
patches + validators) and computes a sample genome's traits (compiling
every gene formula, grouping included) — a CI-friendly content lint.
Verified: --check-content reports 6 def types, 18 genes, 8 plants, 18
traits with hardiness computed from the gene group. Full suite green.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
New plant content, all driven by genes through the trait layer (no engine
change — the genetics machinery already supports it).
- ProductDef + products.json (wood, grass, berries, acorn) — what plants
yield; localized labels (ru/en).
- New numeric genes (genes.json): GeneFruitYield, GeneFruitSeason,
GeneHarvestAmount, GeneLeafHue, each declaring its trait via formula.
GenomeDef carries the per-species bases (PlantSet maps them into the
species template); PlantDef gains harvestProduct / fruitProduct.
- PlantPhenotype gains FruitYield/FruitSeason/HarvestAmount/LeafHue.
PlantFactory tints the sprite from the leaf-hue gene (combined with the
morph variant). Plants carry a Fruiting component; PlantFruitingSystem
ripens fruit on mature plants during their gene-chosen season and drops
it off-season.
- plants.json: trees give wood + acorns (autumn), bushes berries (summer),
grass gives grass — amounts/season/hue from genes.
- 'plant <species> [seed]' console command samples a species genome and
prints its gene-driven traits and products.
Build clean; def JSON validated; boot smoke loads the new content.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
LittleSim.Web (Blazor WASM + KNI/WebGL) is a real network client now: it
connects to the dedicated server over WebSocket (ClientWebSocket maps to
the browser socket), applies MrGameEng.Net delta snapshots into its
EntityStore and draws pawns through SpriteBatch — fatigue dims them just
like on desktop. The server address comes from ?server=ws://host:port
in the page URL, defaulting to the page's host on port 9050. The net
contract is mirrored in NetContract.cs (KNI and DesktopGL assemblies
can't mix until the graphics libraries build per platform) with loud
keep-in-sync comments on both sides.
Both clients now smooth replicated positions between 10 Hz snapshots:
NetLerp + NetSmoothingSystem lerp the visual position toward the latest
server position every frame (exponential, ~0.25 s to converge).
Verified against a live LittleSim.Server --listen: the browser client
connects (server log), draws ~3.3k lit pixels of pawns whose layout
changes between samples, and survives 400+ ticks without errors. Found
along the way: requestAnimationFrame freezes in hidden windows — the
game loop only runs while the tab is visible.
Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
Plants now carry a managed Genome and read formula-computed traits
instead of the hardcoded PlantGenome struct. Engine pointer -> ead2251
(GenomeTemplate + Breed mutationChance override).
- PlantOrganism { Genome; PlantPhenotype Traits } replaces PlantGenome.
Traits (optima/tolerances, vigor, lifespan, dispersal, reproduce
interval, self-pollination, mutation rate, morph variant) come from
Phenotype.Compute over the gene effect formulas in genes.json.
- PlantSet builds a per-species GenomeTemplate by mapping each species'
existing plants.json genome numbers onto the shared GeneDefs, and
exposes the gene registry. Species values unchanged — only reinterpreted
through genes now.
- Growth and lifecycle systems read PlantOrganism.Traits; breeding goes
through Genome.Breed with the registry and a mutation chance averaged
from the parents' evolvable mutationRate trait. Scatter generates from
the species template.
- Save stores the genome as a geneId->Allele map; load rebuilds it
(empty/legacy saves regenerate from the template — dev saves disposable).
Behaviour matches phases A-D, now fully data-driven through genes and
formulas. Full suite green; boot smoke test loads genes + plants cleanly.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Engine bump brings MrGameEng.Net (WebSocket transport, RFC 6455 server,
delta component replication) — this commit is its showcase.
LittleSim.Server --listen runs the world online: 24 pawns wander, tire
and rest on the engine's fixed-tick HeadlessHost (the same Wander/
Needs/Decision systems the windowed world uses), a WebSocketServer
accepts clients and a ReplicationServer ships Transform2D + PawnNeeds
deltas at 10 snapshots/s per the shared NetSchema. --probe is the CLI
check: it connects, listens for a second and prints replicated pawns
with positions sampled twice to show the world is alive.
The game gains MultiplayerScene (dotnet run --project src/LittleSim --
--connect [ws://host:port]): simulation stays on the server, the client
applies snapshots into its scene store, decorates spawned entities with
sprites and reuses PawnAppearanceSystem so replicated fatigue darkens
pawns locally. HUD strings go through ru/en localization; the `net`
console command reports connection state and entity count. Esc returns
to the main menu.
Verified end to end: probe sees 24 pawns moving between samples; the
windowed client connects and runs against a live local server.
Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
Engine pointer -> bc18db5: brings in the organism-agnostic gene
foundation (GeneDef, managed Genome, Phenotype trait computation) plus a
parallel MrGameEng.Net library the game does not use.
Game wiring: register the "Gene" def type and ship Mods/Core/Defs/
genes.json — a full gene set covering the plant phenotype dimensions
(environment optima/tolerances, vigor, lifecycle, reproduction) plus a
discrete morph gene, each declaring its trait effects as formulas. A
dev-console 'gene [seed]' command generates a genome from these defs,
prints its alleles, expressed values and computed traits, then breeds a
child — demonstrating the whole pipeline end to end. These genes seed
the G3 migration of plants onto traits.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Engine pointer -> 10898b0, which brings in two engine changes:
- the gene-system formula engine (Core): a data-driven expression
evaluator that compiles a def string once and evaluates it
allocation-free against a variable context;
- a parallel refactor splitting the platform out of Core into a new
MrGameEng.Host library.
Game migration for the Host split: reference MrGameEng.Host (+ add it
and its test project to the solution), import MrGameEng.Host where
GameHost/GameHostOptions/Input are used, switch Transition.Fade ->
Transitions.Fade, and read the device via context.GetGraphicsDevice()
now that EngineContext is platform-free.
Showcase the formula engine with a dev-console 'formula <expr>' command
that compiles and evaluates an expression. Also adds docs/гены.md, the
gene-system design doc (phases G1-G5).
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
spikes/KniWeb (outside LittleSim.sln): a kni-blazor-gl template project
(KNI 4.2.9001, net8.0) referencing MrGameEng.Core directly. A mini-host
in the GameHost mold drives EngineContext/GameClock/Scene phases over
KNI's Game; the scene moves 300 Friflo entities in the update phase and
draws them with SpriteBatch (WebGL). Verified in a real browser: sprites
render and animate, browser console is clean.
Decision (docs/web-client.md): path A — KNI — is the primary route for
the web client; the core runs in Blazor WASM unchanged thanks to the
Core/Host split. Known follow-ups: per-platform compilation of the
graphics libraries against nkast.* packages, shader compatibility for
Renderer2D, HTTP-served content instead of the filesystem.
Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
Engine bump: MrGameEng.Core is now platform-free (Friflo only), the
windowed MonoGame host lives in the new MrGameEng.Host library, and the
core gains HeadlessHost — a fixed-timestep loop without a window or GPU.
Game side: scenes switch to Transitions.Fade from the Host library,
WorldScene reads the graphics device via Context.GetGraphicsDevice(),
GameContent.Load(buildAtlases: false) skips atlas building for headless
runs.
LittleSim.Server is the dedicated-server seed and the showcase for
HeadlessHost: it loads mods/defs without textures and fast-forwards the
world calendar and climate on a fixed tick (~3.6M ticks/s in Debug):
dotnet run --project src/LittleSim.Server -- --days 10 --tps 60
Co-Authored-By: Claude Fable 5 <noreply@anthropic.com>
Bump the engine submodule to 79d406a (2D lightmap). The world scene now uses
UseLighting instead of the per-sprite ambient: a lightmap multiplies day/night
× occlusion over the world, so forests cast soft shade and the world darkens
spatially toward night. Occluders are mountains (new TerrainDef.BlocksLight)
plus mature trees, rebuilt from the live population. PlantGrowthSystem samples
the local light per plant (Lighting.SampleAt), so undergrowth under canopy
grows slower. A dev-console 'light' command places a point light at the cursor
to show cast shadows at night. Completes the plant ecosystem (A–D).
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Plants now live full lives. The genome gains lifespan, dispersal, fecundity,
self-pollination, mutation-rate and a discrete dominant/recessive Morph gene;
PlantGenome.Breed models meiosis (one allele per parent) plus mutation. A
gated PlantLifecycleSystem builds a per-cell grid (density + a species/genome
representative), reaps plants past their lifespan, and lets mature plants seed
offspring — cross-pollinating with a mature same-species neighbour in dispersal
range (falling back to self-pollination by gene) into a nearby land cell under
the density cap. A shared PlantFactory creates every plant (initial scatter,
births, save restore) and tints recessive-morph plants. Growth keeps aging
mature plants so they can die of old age. The whole population (genomes,
positions, age, stage) is saved to WorldSave and restored on load instead of
re-scattering from the seed. plants.json carries the new genes.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Bump the engine submodule to d0104df (Suitability.Gaussian). Each plant now
carries a diploid PlantGenome (allele pairs, phenotype = allele average) seeded
from a per-species GenomeDef baseline at spawn. PlantGrowthSystem replaces the
flat fertility multiplier with vigor times a product of Gaussian suitabilities
for light (day/night), temperature (climate season) and the cell's fertility —
so plants grow faster in their preferred light/warmth/soil and crawl outside it.
Genomes are visible and editable in the ECS inspector. plants.json carries the
species genomes.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Bump the engine submodule to a684c23 (Climate + day/night ambient). The
world scene now registers UseClimate and UseDayNight, so it darkens at
night and the HUD shows the season and temperature alongside the date.
Add docs/растения.md capturing the whole plant-ecosystem design (growth as
a suitability product, hybrid Mendelian genome, climate, lighting with
shadows, reproduction, persistence) and the A-D phase plan.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
