Files
nissefolk/src/systems/VillagerSystem.ts
tekki mariani 969a82949e Försterkreislauf: Setzlinge beim Fällen, Försterhaus, Förster-Job
- Gefällter Baum → 1–2 tree_seed im Stockpile (zufällig)
- Neues Gebäude forester_hut (50 wood): Log-Hütten-Grafik, Klick öffnet Info-Panel
- Zonenmarkierung: Edit-Zone-Tool, Radius 5 Tiles, halbtransparente Overlay-Anzeige
- Neuer JobType 'forester': Nisse pflanzen Setzlinge auf markierten Zonen-Tiles
- Chop-Priorisierung: Zonen-Bäume werden vor natürlichen Bäumen gefällt
- Nisse-Panel & Info-Panel zeigen forester-Priorität-Button

Closes #25

Co-Authored-By: Claude Sonnet 4.6 <noreply@anthropic.com>
2026-03-23 13:07:36 +00:00

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import Phaser from 'phaser'
import { TILE_SIZE, VILLAGER_SPEED, VILLAGER_SPAWN_INTERVAL, VILLAGER_WORK_TIMES, VILLAGER_NAMES, WORLD_TILES } from '../config'
import { TileType, PLANTABLE_TILES } from '../types'
import type { VillagerState, VillagerJob, JobType, AIState, ItemId } from '../types'
import { stateManager } from '../StateManager'
import { findPath } from '../utils/pathfinding'
import type { LocalAdapter } from '../NetworkAdapter'
import type { WorldSystem } from './WorldSystem'
import type { ResourceSystem } from './ResourceSystem'
import type { FarmingSystem } from './FarmingSystem'
const ARRIVAL_PX = 3
const WORK_LOG_MAX = 20
interface VillagerRuntime {
sprite: Phaser.GameObjects.Image
nameLabel: Phaser.GameObjects.Text
energyBar: Phaser.GameObjects.Graphics
jobIcon: Phaser.GameObjects.Text
path: Array<{ tileX: number; tileY: number }>
destination: 'job' | 'stockpile' | 'bed' | null
workTimer: number
idleScanTimer: number
/** Runtime-only activity log; not persisted. Max WORK_LOG_MAX entries. */
workLog: string[]
}
export class VillagerSystem {
private scene: Phaser.Scene
private adapter: LocalAdapter
private worldSystem: WorldSystem
private resourceSystem!: ResourceSystem
private farmingSystem!: FarmingSystem
private runtime = new Map<string, VillagerRuntime>()
private claimed = new Set<string>() // target IDs currently claimed by a villager
private spawnTimer = 0
private nameIndex = 0
onMessage?: (msg: string) => void
onNisseClick?: (villagerId: string) => void
/**
* Called when a Nisse completes a forester planting job.
* GameScene wires this to TreeSeedlingSystem.plantSeedling so that the
* seedling sprite is spawned alongside the state action.
*/
onPlantSeedling?: (tileX: number, tileY: number, tile: TileType) => void
/**
* @param scene - The Phaser scene this system belongs to
* @param adapter - Network adapter for dispatching state actions
* @param worldSystem - Used for passability checks during pathfinding
*/
constructor(scene: Phaser.Scene, adapter: LocalAdapter, worldSystem: WorldSystem) {
this.scene = scene
this.adapter = adapter
this.worldSystem = worldSystem
}
/**
* Wires in sibling systems that are not available at construction time.
* Must be called before create().
* @param resourceSystem - Used to remove harvested resource sprites
* @param farmingSystem - Used to remove harvested crop sprites
*/
init(resourceSystem: ResourceSystem, farmingSystem: FarmingSystem): void {
this.resourceSystem = resourceSystem
this.farmingSystem = farmingSystem
}
/**
* Spawns sprites for all Nisse that exist in the saved state
* and re-claims any active job targets.
*/
create(): void {
const state = stateManager.getState()
for (const v of Object.values(state.world.villagers)) {
this.spawnSprite(v)
// Re-claim any active job targets
if (v.job) this.claimed.add(v.job.targetId)
}
}
/**
* Advances the spawn timer and ticks every Nisse's AI.
* @param delta - Frame delta in milliseconds
*/
update(delta: number): void {
this.spawnTimer += delta
if (this.spawnTimer >= VILLAGER_SPAWN_INTERVAL) {
this.spawnTimer = 0
this.trySpawn()
}
const state = stateManager.getState()
for (const v of Object.values(state.world.villagers)) {
this.tickVillager(v, delta)
}
}
// ─── Per-villager tick ────────────────────────────────────────────────────
/**
* Dispatches the correct AI tick method based on the villager's current state,
* then syncs the sprite, name label, energy bar, and job icon to the state.
* @param v - Villager state from the store
* @param delta - Frame delta in milliseconds
*/
private tickVillager(v: VillagerState, delta: number): void {
const rt = this.runtime.get(v.id)
if (!rt) return
switch (v.aiState as AIState) {
case 'idle': this.tickIdle(v, rt, delta); break
case 'walking': this.tickWalking(v, rt, delta); break
case 'working': this.tickWorking(v, rt, delta); break
case 'sleeping':this.tickSleeping(v, rt, delta); break
}
// Sync sprite to state position
rt.sprite.setPosition(v.x, v.y)
rt.nameLabel.setPosition(v.x, v.y - 22)
rt.energyBar.setPosition(0, 0)
this.drawEnergyBar(rt.energyBar, v.x, v.y, v.energy)
// Job icon
const icons: Record<string, string> = { chop: '🪓', mine: '⛏', farm: '🌾', forester: '🌲', '': '' }
const jobType = v.aiState === 'sleeping' ? '💤' : (v.job ? (icons[v.job.type] ?? '') : '')
rt.jobIcon.setText(jobType).setPosition(v.x + 10, v.y - 18)
}
// ─── IDLE ─────────────────────────────────────────────────────────────────
/**
* Handles the idle AI state: hauls items to stockpile if carrying any,
* seeks a bed if energy is low, otherwise picks the next job and begins walking.
* Applies a cooldown before scanning again if no job is found.
* @param v - Villager state
* @param rt - Villager runtime (sprites, path, timers)
* @param delta - Frame delta in milliseconds
*/
private tickIdle(v: VillagerState, rt: VillagerRuntime, delta: number): void {
// Decrement scan timer if cooling down
if (rt.idleScanTimer > 0) {
rt.idleScanTimer -= delta
return
}
// Carrying items? → find stockpile
if (v.job?.carrying && Object.values(v.job.carrying).some(n => (n ?? 0) > 0)) {
const sp = this.nearestBuilding(v, 'stockpile_zone')
if (sp) {
this.addLog(v.id, '→ Hauling to stockpile')
this.beginWalk(v, rt, sp.tileX, sp.tileY, 'stockpile')
return
}
}
// Low energy → find bed
if (v.energy < 25) {
const bed = this.findBed(v)
if (bed) {
this.addLog(v.id, '→ Going to sleep (low energy)')
this.beginWalk(v, rt, bed.tileX, bed.tileY, 'bed')
return
}
}
// Find a job
const job = this.pickJob(v)
if (job) {
this.claimed.add(job.targetId)
this.adapter.send({
type: 'VILLAGER_SET_JOB', villagerId: v.id,
job: { type: job.type, targetId: job.targetId, tileX: job.tileX, tileY: job.tileY, carrying: {} },
})
this.addLog(v.id, `→ Walking to ${job.type} at (${job.tileX}, ${job.tileY})`)
this.beginWalk(v, rt, job.tileX, job.tileY, 'job')
} else {
// No job available — wait before scanning again
rt.idleScanTimer = 800 + Math.random() * 600
}
}
// ─── WALKING ──────────────────────────────────────────────────────────────
/**
* Advances the Nisse along its path toward the current destination.
* Calls onArrived when the path is exhausted.
* Drains energy slowly while walking.
* @param v - Villager state
* @param rt - Villager runtime
* @param delta - Frame delta in milliseconds
*/
private tickWalking(v: VillagerState, rt: VillagerRuntime, delta: number): void {
if (rt.path.length === 0) {
this.onArrived(v, rt)
return
}
const next = rt.path[0]
const tx = (next.tileX + 0.5) * TILE_SIZE
const ty = (next.tileY + 0.5) * TILE_SIZE
const dx = tx - v.x
const dy = ty - v.y
const dist = Math.hypot(dx, dy)
if (dist < ARRIVAL_PX) {
;(v as { x: number; y: number }).x = tx
;(v as { x: number; y: number }).y = ty
rt.path.shift()
} else {
const step = Math.min(VILLAGER_SPEED * delta / 1000, dist)
;(v as { x: number; y: number }).x += (dx / dist) * step
;(v as { x: number; y: number }).y += (dy / dist) * step
rt.sprite.setFlipX(dx < 0)
}
// Slowly drain energy while active
;(v as { energy: number }).energy = Math.max(0, v.energy - delta * 0.0015)
}
/**
* Called when a Nisse reaches its destination tile.
* Transitions to the appropriate next AI state based on destination type.
* @param v - Villager state
* @param rt - Villager runtime
*/
private onArrived(v: VillagerState, rt: VillagerRuntime): void {
switch (rt.destination) {
case 'job':
rt.workTimer = VILLAGER_WORK_TIMES[v.job?.type ?? 'chop'] ?? 3000
this.adapter.send({ type: 'VILLAGER_SET_AI', villagerId: v.id, aiState: 'working' })
break
case 'stockpile':
this.adapter.send({ type: 'VILLAGER_DEPOSIT', villagerId: v.id })
this.adapter.send({ type: 'VILLAGER_SET_AI', villagerId: v.id, aiState: 'idle' })
rt.idleScanTimer = 0 // scan for a new job immediately after deposit
this.addLog(v.id, '✓ Deposited at stockpile')
break
case 'bed':
this.adapter.send({ type: 'VILLAGER_SET_AI', villagerId: v.id, aiState: 'sleeping' })
this.addLog(v.id, '💤 Sleeping...')
break
default:
this.adapter.send({ type: 'VILLAGER_SET_AI', villagerId: v.id, aiState: 'idle' })
}
rt.destination = null
}
// ─── WORKING ──────────────────────────────────────────────────────────────
/**
* Counts down the work timer and performs the harvest action on completion.
* Handles chop, mine, and farm job types.
* Returns the Nisse to idle when done.
* @param v - Villager state
* @param rt - Villager runtime
* @param delta - Frame delta in milliseconds
*/
private tickWorking(v: VillagerState, rt: VillagerRuntime, delta: number): void {
rt.workTimer -= delta
// Wobble while working
rt.sprite.setAngle(Math.sin(Date.now() / 120) * 8)
if (rt.workTimer > 0) return
rt.sprite.setAngle(0)
const job = v.job
if (!job) { this.adapter.send({ type: 'VILLAGER_SET_AI', villagerId: v.id, aiState: 'idle' }); return }
this.claimed.delete(job.targetId)
const state = stateManager.getState()
if (job.type === 'chop') {
const res = state.world.resources[job.targetId]
if (res) {
this.adapter.send({ type: 'VILLAGER_HARVEST_RESOURCE', villagerId: v.id, resourceId: job.targetId })
this.adapter.send({ type: 'CHANGE_TILE', tileX: res.tileX, tileY: res.tileY, tile: TileType.DARK_GRASS })
this.adapter.send({ type: 'TILE_RECOVERY_START', tileX: res.tileX, tileY: res.tileY })
this.worldSystem.removeResourceTile(res.tileX, res.tileY)
this.resourceSystem.removeResource(job.targetId)
// Chopping a tree yields 12 tree seeds in the stockpile
const seeds = Math.random() < 0.5 ? 2 : 1
this.adapter.send({ type: 'ADD_ITEMS', items: { tree_seed: seeds } })
this.addLog(v.id, `✓ Chopped tree (+2 wood, +${seeds} tree seed)`)
}
} else if (job.type === 'mine') {
const res = state.world.resources[job.targetId]
if (res) {
this.adapter.send({ type: 'VILLAGER_HARVEST_RESOURCE', villagerId: v.id, resourceId: job.targetId })
this.adapter.send({ type: 'CHANGE_TILE', tileX: res.tileX, tileY: res.tileY, tile: TileType.GRASS })
this.worldSystem.removeResourceTile(res.tileX, res.tileY)
this.resourceSystem.removeResource(job.targetId)
this.addLog(v.id, '✓ Mined rock (+2 stone)')
}
} else if (job.type === 'farm') {
const crop = state.world.crops[job.targetId]
if (crop) {
this.adapter.send({ type: 'VILLAGER_HARVEST_CROP', villagerId: v.id, cropId: job.targetId })
this.farmingSystem.removeCropSpritePublic(job.targetId)
this.adapter.send({ type: 'CHANGE_TILE', tileX: crop.tileX, tileY: crop.tileY, tile: 9 as any })
this.addLog(v.id, `✓ Farmed ${crop.kind}`)
}
} else if (job.type === 'forester') {
// Verify the tile is still empty and the stockpile still has seeds
const tileType = state.world.tiles[job.tileY * WORLD_TILES + job.tileX] as TileType
const hasSeeds = (state.world.stockpile.tree_seed ?? 0) > 0
const tileOccupied =
Object.values(state.world.resources).some(r => r.tileX === job.tileX && r.tileY === job.tileY) ||
Object.values(state.world.buildings).some(b => b.tileX === job.tileX && b.tileY === job.tileY) ||
Object.values(state.world.crops).some(c => c.tileX === job.tileX && c.tileY === job.tileY) ||
Object.values(state.world.treeSeedlings).some(s => s.tileX === job.tileX && s.tileY === job.tileY)
if (hasSeeds && PLANTABLE_TILES.has(tileType) && !tileOccupied) {
this.onPlantSeedling?.(job.tileX, job.tileY, tileType)
this.addLog(v.id, `🌱 Planted seedling at (${job.tileX}, ${job.tileY})`)
}
}
// If the harvest produced nothing (resource already gone), clear the stale job
// so tickIdle does not try to walk to a stockpile with nothing to deposit.
if (!v.job?.carrying || !Object.values(v.job.carrying).some(n => (n ?? 0) > 0)) {
this.adapter.send({ type: 'VILLAGER_SET_JOB', villagerId: v.id, job: null })
}
// Back to idle — tickIdle will handle hauling to stockpile if carrying items
this.adapter.send({ type: 'VILLAGER_SET_AI', villagerId: v.id, aiState: 'idle' })
}
// ─── SLEEPING ─────────────────────────────────────────────────────────────
/**
* Restores energy while sleeping. Returns to idle once energy is full.
* @param v - Villager state
* @param rt - Villager runtime
* @param delta - Frame delta in milliseconds
*/
private tickSleeping(v: VillagerState, rt: VillagerRuntime, delta: number): void {
;(v as { energy: number }).energy = Math.min(100, v.energy + delta * 0.04)
// Gentle bob while sleeping
rt.sprite.setAngle(Math.sin(Date.now() / 600) * 5)
if (v.energy >= 100) {
rt.sprite.setAngle(0)
this.adapter.send({ type: 'VILLAGER_SET_AI', villagerId: v.id, aiState: 'idle' })
this.addLog(v.id, '✓ Woke up (energy full)')
}
}
// ─── Job picking (RimWorld-style priority) ────────────────────────────────
/**
* Selects the best available job for a Nisse based on their priority settings.
* Among jobs at the same priority level, the closest one wins.
* Returns null if no unclaimed job is available.
* @param v - Villager state (used for position and priorities)
* @returns The chosen job candidate, or null
*/
/**
* Selects the best available job for a Nisse based on their priority settings.
* Among jobs at the same priority level, the closest one wins.
* For chop jobs, trees within a forester zone are preferred over natural trees —
* natural trees are only offered when no forester-zone trees are available.
* Returns null if no unclaimed job is available.
* @param v - Villager state (used for position and priorities)
* @returns The chosen job candidate, or null
*/
private pickJob(v: VillagerState): { type: JobType; targetId: string; tileX: number; tileY: number } | null {
const state = stateManager.getState()
const p = v.priorities
const vTX = Math.floor(v.x / TILE_SIZE)
const vTY = Math.floor(v.y / TILE_SIZE)
const dist = (tx: number, ty: number) => Math.abs(tx - vTX) + Math.abs(ty - vTY)
type C = { type: JobType; targetId: string; tileX: number; tileY: number; dist: number; pri: number }
const candidates: C[] = []
if (p.chop > 0) {
// Build the set of all tiles belonging to forester zones for chop priority
const zoneTiles = new Set<string>()
for (const zone of Object.values(state.world.foresterZones)) {
for (const key of zone.tiles) zoneTiles.add(key)
}
const zoneChop: C[] = []
const naturalChop: C[] = []
for (const res of Object.values(state.world.resources)) {
if (res.kind !== 'tree' || this.claimed.has(res.id)) continue
// Skip trees with no reachable neighbour — A* cannot reach them.
if (!this.hasAdjacentPassable(res.tileX, res.tileY)) continue
const c: C = { type: 'chop', targetId: res.id, tileX: res.tileX, tileY: res.tileY, dist: dist(res.tileX, res.tileY), pri: p.chop }
if (zoneTiles.has(`${res.tileX},${res.tileY}`)) {
zoneChop.push(c)
} else {
naturalChop.push(c)
}
}
// Prefer zone trees; fall back to natural only when no zone trees are reachable.
candidates.push(...(zoneChop.length > 0 ? zoneChop : naturalChop))
}
if (p.mine > 0) {
for (const res of Object.values(state.world.resources)) {
if (res.kind !== 'rock' || this.claimed.has(res.id)) continue
// Same reachability guard for rock tiles.
if (!this.hasAdjacentPassable(res.tileX, res.tileY)) continue
candidates.push({ type: 'mine', targetId: res.id, tileX: res.tileX, tileY: res.tileY, dist: dist(res.tileX, res.tileY), pri: p.mine })
}
}
if (p.farm > 0) {
for (const crop of Object.values(state.world.crops)) {
if (crop.stage < crop.maxStage || this.claimed.has(crop.id)) continue
candidates.push({ type: 'farm', targetId: crop.id, tileX: crop.tileX, tileY: crop.tileY, dist: dist(crop.tileX, crop.tileY), pri: p.farm })
}
}
if (p.forester > 0 && (state.world.stockpile.tree_seed ?? 0) > 0) {
// Find empty plantable zone tiles to seed
for (const zone of Object.values(state.world.foresterZones)) {
for (const key of zone.tiles) {
const [tx, ty] = key.split(',').map(Number)
const targetId = `forester_tile_${tx}_${ty}`
if (this.claimed.has(targetId)) continue
// Skip if tile is not plantable
const tileType = state.world.tiles[ty * WORLD_TILES + tx] as TileType
if (!PLANTABLE_TILES.has(tileType)) continue
// Skip if something occupies this tile
const occupied =
Object.values(state.world.resources).some(r => r.tileX === tx && r.tileY === ty) ||
Object.values(state.world.buildings).some(b => b.tileX === tx && b.tileY === ty) ||
Object.values(state.world.crops).some(c => c.tileX === tx && c.tileY === ty) ||
Object.values(state.world.treeSeedlings).some(s => s.tileX === tx && s.tileY === ty)
if (occupied) continue
candidates.push({ type: 'forester', targetId, tileX: tx, tileY: ty, dist: dist(tx, ty), pri: p.forester })
}
}
}
if (candidates.length === 0) return null
// Lowest priority number wins; ties broken by distance
const bestPri = Math.min(...candidates.map(c => c.pri))
return candidates
.filter(c => c.pri === bestPri)
.sort((a, b) => a.dist - b.dist)[0] ?? null
}
// ─── Pathfinding ──────────────────────────────────────────────────────────
/**
* Computes a path from the Nisse's current tile to the target tile and
* begins walking. If no path is found, the job is cleared and a cooldown applied.
* @param v - Villager state
* @param rt - Villager runtime
* @param tileX - Target tile X
* @param tileY - Target tile Y
* @param dest - Semantic destination type (used by onArrived)
*/
private beginWalk(v: VillagerState, rt: VillagerRuntime, tileX: number, tileY: number, dest: VillagerRuntime['destination']): void {
const sx = Math.floor(v.x / TILE_SIZE)
const sy = Math.floor(v.y / TILE_SIZE)
const path = findPath(sx, sy, tileX, tileY, (x, y) => this.worldSystem.isPassable(x, y), 700)
if (!path) {
if (v.job) {
this.claimed.delete(v.job.targetId)
this.adapter.send({ type: 'VILLAGER_SET_JOB', villagerId: v.id, job: null })
}
rt.idleScanTimer = 4000 // longer delay after failed pathfind to avoid tight retry loops
return
}
rt.path = path
rt.destination = dest
this.adapter.send({ type: 'VILLAGER_SET_AI', villagerId: v.id, aiState: 'walking' })
}
// ─── Building finders ─────────────────────────────────────────────────────
/**
* Returns the nearest building of the given kind to the Nisse, or null if none exist.
* @param v - Villager state (used as reference position)
* @param kind - Building kind to search for
*/
private nearestBuilding(v: VillagerState, kind: string): { tileX: number; tileY: number } | null {
const state = stateManager.getState()
const hits = Object.values(state.world.buildings).filter(b => b.kind === kind)
if (hits.length === 0) return null
const vx = v.x / TILE_SIZE
const vy = v.y / TILE_SIZE
return hits.sort((a, b) => Math.hypot(a.tileX - vx, a.tileY - vy) - Math.hypot(b.tileX - vx, b.tileY - vy))[0]
}
/**
* Returns the Nisse's assigned bed if it still exists, otherwise the nearest bed.
* Returns null if no beds are placed.
* @param v - Villager state
*/
private findBed(v: VillagerState): { id: string; tileX: number; tileY: number } | null {
const state = stateManager.getState()
// Prefer assigned bed
if (v.bedId && state.world.buildings[v.bedId]) return state.world.buildings[v.bedId] as any
return this.nearestBuilding(v, 'bed') as any
}
/**
* Returns true if at least one of the 8 neighbours of the given tile is passable.
* Used to pre-filter job targets that are fully enclosed by impassable terrain —
* such as trees deep inside a dense forest cluster where A* can never reach the goal
* tile because no passable tile is adjacent to it.
* @param tileX - Target tile X
* @param tileY - Target tile Y
*/
private hasAdjacentPassable(tileX: number, tileY: number): boolean {
const DIRS = [[1,0],[-1,0],[0,1],[0,-1],[1,1],[1,-1],[-1,1],[-1,-1]] as const
for (const [dx, dy] of DIRS) {
if (this.worldSystem.isPassable(tileX + dx, tileY + dy)) return true
}
return false
}
// ─── Spawning ─────────────────────────────────────────────────────────────
/**
* Attempts to spawn a new Nisse if a free bed is available and the
* current population is below the bed count.
*/
private trySpawn(): void {
const state = stateManager.getState()
const beds = Object.values(state.world.buildings).filter(b => b.kind === 'bed')
const current = Object.keys(state.world.villagers).length
if (current >= beds.length || beds.length === 0) return
// Find a free bed (not assigned to any existing villager)
const taken = new Set(Object.values(state.world.villagers).map(v => v.bedId))
const freeBed = beds.find(b => !taken.has(b.id))
if (!freeBed) return
const name = VILLAGER_NAMES[this.nameIndex % VILLAGER_NAMES.length]
this.nameIndex++
const villager: VillagerState = {
id: `villager_${Date.now()}`,
name,
x: (freeBed.tileX + 0.5) * TILE_SIZE,
y: (freeBed.tileY + 0.5) * TILE_SIZE,
bedId: freeBed.id,
job: null,
priorities: { chop: 1, mine: 2, farm: 3, forester: 4 },
energy: 100,
aiState: 'idle',
}
this.adapter.send({ type: 'SPAWN_VILLAGER', villager })
this.spawnSprite(villager)
this.onMessage?.(`${name} the Nisse has arrived! 🏘`)
}
// ─── Sprite management ────────────────────────────────────────────────────
/**
* Creates and registers all runtime objects (sprite, label, energy bar, icon)
* for a newly added Nisse.
* @param v - Villager state to create sprites for
*/
private spawnSprite(v: VillagerState): void {
const sprite = this.scene.add.image(v.x, v.y, 'villager').setDepth(11)
const nameLabel = this.scene.add.text(v.x, v.y - 22, v.name, {
fontSize: '8px', color: '#ffffff', fontFamily: 'monospace',
backgroundColor: '#00000088', padding: { x: 2, y: 1 },
}).setOrigin(0.5, 1).setDepth(12)
const energyBar = this.scene.add.graphics().setDepth(12)
const jobIcon = this.scene.add.text(v.x, v.y - 18, '', { fontSize: '10px' }).setDepth(13)
sprite.setInteractive()
sprite.on('pointerdown', () => this.onNisseClick?.(v.id))
this.runtime.set(v.id, { sprite, nameLabel, energyBar, jobIcon, path: [], destination: null, workTimer: 0, idleScanTimer: 0, workLog: [] })
}
/**
* Redraws the energy bar graphic for a Nisse at the given world position.
* Color transitions green → orange → red as energy decreases.
* @param g - Graphics object to draw into
* @param x - World X center of the Nisse
* @param y - World Y center of the Nisse
* @param energy - Current energy value (0100)
*/
private drawEnergyBar(g: Phaser.GameObjects.Graphics, x: number, y: number, energy: number): void {
const W = 20, H = 3
g.clear()
g.fillStyle(0x222222); g.fillRect(x - W/2, y - 28, W, H)
const col = energy > 60 ? 0x4CAF50 : energy > 30 ? 0xFF9800 : 0xF44336
g.fillStyle(col); g.fillRect(x - W/2, y - 28, W * (energy / 100), H)
}
// ─── Work log ─────────────────────────────────────────────────────────────
/**
* Prepends a message to the runtime work log for the given Nisse.
* Trims the log to WORK_LOG_MAX entries. No-ops if the Nisse is not found.
* @param villagerId - Target Nisse ID
* @param msg - Log message to prepend
*/
private addLog(villagerId: string, msg: string): void {
const rt = this.runtime.get(villagerId)
if (!rt) return
rt.workLog.unshift(msg)
if (rt.workLog.length > WORK_LOG_MAX) rt.workLog.length = WORK_LOG_MAX
}
// ─── Public API ───────────────────────────────────────────────────────────
/**
* Returns a short human-readable status string for the given Nisse,
* suitable for display in UI panels.
* @param villagerId - The Nisse's ID
* @returns Status string, or '—' if the Nisse is not found
*/
getStatusText(villagerId: string): string {
const v = stateManager.getState().world.villagers[villagerId]
if (!v) return '—'
if (v.aiState === 'sleeping') return '💤 Sleeping'
if (v.aiState === 'working' && v.job) {
const label = v.job.type === 'forester' ? 'planting' : `${v.job.type}ing`
return `${label}`
}
if (v.aiState === 'walking' && v.job) return `🚶 → ${v.job.type}`
if (v.aiState === 'walking') return '🚶 Walking'
const carrying = v.job?.carrying
if (carrying && Object.values(carrying).some(n => (n ?? 0) > 0)) return '📦 Hauling'
return '💭 Idle'
}
/**
* Returns a copy of the runtime work log for the given Nisse (newest first).
* @param villagerId - The Nisse's ID
* @returns Array of log strings, or empty array if not found
*/
getWorkLog(villagerId: string): string[] {
return [...(this.runtime.get(villagerId)?.workLog ?? [])]
}
/**
* Returns the current world position and remaining path for every Nisse
* that is currently in the 'walking' state. Used by DebugSystem for
* pathfinding visualization.
* @returns Array of path entries, one per walking Nisse
*/
getActivePaths(): Array<{ x: number; y: number; path: Array<{ tileX: number; tileY: number }> }> {
const state = stateManager.getState()
const result: Array<{ x: number; y: number; path: Array<{ tileX: number; tileY: number }> }> = []
for (const v of Object.values(state.world.villagers)) {
if (v.aiState !== 'walking') continue
const rt = this.runtime.get(v.id)
if (!rt) continue
result.push({ x: v.x, y: v.y, path: [...rt.path] })
}
return result
}
/**
* Destroys all Nisse sprites and clears the runtime map.
* Should be called when the scene shuts down.
*/
destroy(): void {
for (const rt of this.runtime.values()) {
rt.sprite.destroy(); rt.nameLabel.destroy()
rt.energyBar.destroy(); rt.jobIcon.destroy()
}
this.runtime.clear()
}
}