Optimize elevator editing performance with live previews

This commit is contained in:
sudhir
2026-05-09 19:09:48 +05:30
parent 0514363136
commit 2480be91b1
59 changed files with 4299 additions and 176 deletions
@@ -0,0 +1,811 @@
import {
type AnyNodeId,
type ElevatorNode,
useInteractive,
useLiveNodeOverrides,
useRegistry,
useScene,
} from '@pascal-app/core'
import { useFrame, type ThreeEvent } from '@react-three/fiber'
import { useEffect, useMemo, useRef } from 'react'
import type { Group } from 'three'
import { useShallow } from 'zustand/react/shallow'
import { useNodeEvents } from '../../../hooks/use-node-events'
import { resolveElevatorLevels } from '../../../systems/elevator/elevator-utils'
const SHAFT_WALL_COLOR = '#d7dce4'
const SHAFT_SIDE_COLOR = '#4b5563'
const SHAFT_TRIM_COLOR = '#eef2f7'
const CAB_COLOR = '#d7dde5'
const GLASS_COLOR = '#f8fafc'
const DOOR_COLOR = '#8e98a6'
const PANEL_COLOR = '#1f2937'
type SegmentName =
| 'bottom'
| 'lowerLeft'
| 'lowerRight'
| 'middle'
| 'top'
| 'upperLeft'
| 'upperRight'
const DIGIT_SEGMENTS: Record<string, readonly SegmentName[]> = {
'0': ['top', 'upperLeft', 'upperRight', 'lowerLeft', 'lowerRight', 'bottom'],
'1': ['upperRight', 'lowerRight'],
'2': ['top', 'upperRight', 'middle', 'lowerLeft', 'bottom'],
'3': ['top', 'upperRight', 'middle', 'lowerRight', 'bottom'],
'4': ['upperLeft', 'upperRight', 'middle', 'lowerRight'],
'5': ['top', 'upperLeft', 'middle', 'lowerRight', 'bottom'],
'6': ['top', 'upperLeft', 'middle', 'lowerLeft', 'lowerRight', 'bottom'],
'7': ['top', 'upperRight', 'lowerRight'],
'8': ['top', 'upperLeft', 'upperRight', 'middle', 'lowerLeft', 'lowerRight', 'bottom'],
'9': ['top', 'upperLeft', 'upperRight', 'middle', 'lowerRight', 'bottom'],
'-': ['middle'],
}
const SEGMENT_PROPS: Record<
SegmentName,
{ position: [number, number, number]; size: [number, number, number] }
> = {
bottom: { position: [0, -0.44, 0], size: [0.56, 0.11, 0.018] },
lowerLeft: { position: [-0.32, -0.22, 0], size: [0.11, 0.42, 0.018] },
lowerRight: { position: [0.32, -0.22, 0], size: [0.11, 0.42, 0.018] },
middle: { position: [0, 0, 0], size: [0.52, 0.1, 0.018] },
top: { position: [0, 0.44, 0], size: [0.56, 0.11, 0.018] },
upperLeft: { position: [-0.32, 0.22, 0], size: [0.11, 0.42, 0.018] },
upperRight: { position: [0.32, 0.22, 0], size: [0.11, 0.42, 0.018] },
}
function MeshButtonLabel({
color,
label,
position,
scale,
}: {
color: string
label: string
position: [number, number, number]
scale: number
}) {
const characters = label.split('').filter((character) => DIGIT_SEGMENTS[character])
const spacing = 0.72 * scale
const startX = -((characters.length - 1) * spacing) / 2
if (characters.length === 0) return null
return (
<group position={position}>
{characters.map((character, charIndex) => (
<group key={`${character}-${charIndex}`} position={[startX + charIndex * spacing, 0, 0]}>
{(DIGIT_SEGMENTS[character] ?? []).map((segment) => {
const props = SEGMENT_PROPS[segment]
return (
<mesh
key={segment}
position={[props.position[0] * scale, props.position[1] * scale, props.position[2]]}
>
<boxGeometry args={[props.size[0] * scale, props.size[1] * scale, props.size[2]]} />
<meshStandardMaterial color={color} metalness={0.12} roughness={0.34} />
</mesh>
)
})}
</group>
))}
</group>
)
}
function ElevatorDirectionGlyph({
color,
direction,
position,
scale,
}: {
color: string
direction: 'down' | 'up' | null
position: [number, number, number]
scale: number
}) {
if (!direction) {
return (
<mesh position={position}>
<boxGeometry args={[0.08 * scale, 0.08 * scale, 0.018]} />
<meshStandardMaterial
color={color}
emissive={color}
emissiveIntensity={0.28}
metalness={0.08}
roughness={0.32}
/>
</mesh>
)
}
const ySign = direction === 'up' ? 1 : -1
return (
<group position={position}>
<mesh
position={[-0.04 * scale, -0.02 * ySign * scale, 0]}
rotation-z={(-ySign * Math.PI) / 4}
>
<boxGeometry args={[0.16 * scale, 0.035 * scale, 0.018]} />
<meshStandardMaterial
color={color}
emissive={color}
emissiveIntensity={0.36}
metalness={0.08}
roughness={0.32}
/>
</mesh>
<mesh position={[0.04 * scale, -0.02 * ySign * scale, 0]} rotation-z={(ySign * Math.PI) / 4}>
<boxGeometry args={[0.16 * scale, 0.035 * scale, 0.018]} />
<meshStandardMaterial
color={color}
emissive={color}
emissiveIntensity={0.36}
metalness={0.08}
roughness={0.32}
/>
</mesh>
</group>
)
}
function ElevatorFloorIndicator({
active,
direction,
faceSign = -1,
label,
position,
scale = 1,
}: {
active: boolean
direction: 'down' | 'up' | null
faceSign?: -1 | 1
label: string
position: [number, number, number]
scale?: number
}) {
const glowColor = active ? '#38bdf8' : '#94a3b8'
const screenColor = active ? '#041f2f' : '#111827'
const displayLabel = label || '-'
const screenZ = faceSign * 0.026 * scale
const glyphZ = faceSign * 0.041 * scale
return (
<group position={position}>
<mesh castShadow receiveShadow>
<boxGeometry args={[0.42 * scale, 0.16 * scale, 0.045 * scale]} />
<meshStandardMaterial color={PANEL_COLOR} metalness={0.36} roughness={0.34} />
</mesh>
<mesh position={[0, 0, screenZ]}>
<boxGeometry args={[0.34 * scale, 0.095 * scale, 0.012 * scale]} />
<meshStandardMaterial
color={screenColor}
emissive={active ? '#0ea5e9' : '#000000'}
emissiveIntensity={active ? 0.16 : 0}
metalness={0.12}
roughness={0.38}
/>
</mesh>
<ElevatorDirectionGlyph
color={glowColor}
direction={direction}
position={[-0.115 * scale, 0, glyphZ]}
scale={scale}
/>
<MeshButtonLabel
color={glowColor}
label={displayLabel}
position={[0.075 * scale, 0, glyphZ]}
scale={0.055 * scale}
/>
</group>
)
}
function ElevatorMeshButton({
active,
buttonKind,
elevatorId,
faceSign = -1,
label,
levelId,
onRequest,
position,
queued,
radius = 0.055,
}: {
active: boolean
buttonKind: 'cab' | 'landing'
elevatorId: AnyNodeId
faceSign?: -1 | 1
label?: string
levelId: AnyNodeId
onRequest: () => void
position: [number, number, number]
queued: boolean
radius?: number
}) {
const buttonColor = active ? '#38bdf8' : queued ? '#fbbf24' : '#d6dde7'
const labelColor = active || queued ? '#111827' : '#334155'
const ringColor = active ? '#0ea5e9' : queued ? '#f59e0b' : '#64748b'
const depth = active ? 0.028 : 0.04
const faceZ = faceSign * (depth / 2 + 0.004)
const userData = useMemo(
() => ({
elevatorButton: {
elevatorId,
kind: buttonKind,
levelId,
},
}),
[buttonKind, elevatorId, levelId],
)
const press = (event: ThreeEvent<PointerEvent>) => {
if (event.button !== 0) return
onRequest()
}
return (
<group onPointerDown={press} position={position} userData={userData}>
{(active || queued) && (
<mesh position={[0, 0, faceSign * (depth + 0.004)]} receiveShadow rotation-x={Math.PI / 2}>
<cylinderGeometry args={[radius * 1.42, radius * 1.42, 0.012, 32]} />
<meshStandardMaterial
color={buttonColor}
depthWrite={false}
emissive={buttonColor}
emissiveIntensity={active ? 0.28 : 0.18}
opacity={0.58}
transparent
/>
</mesh>
)}
<mesh castShadow position={[0, 0, faceSign * (depth / 2 + 0.003)]} receiveShadow>
<torusGeometry args={[radius * 1.12, radius * 0.12, 8, 32]} />
<meshStandardMaterial
color={ringColor}
emissive={active || queued ? ringColor : '#000000'}
emissiveIntensity={active ? 0.16 : queued ? 0.1 : 0}
metalness={0.48}
roughness={0.28}
/>
</mesh>
<mesh castShadow receiveShadow rotation-x={Math.PI / 2}>
<cylinderGeometry args={[radius, radius * 0.92, depth, 32]} />
<meshStandardMaterial
color={buttonColor}
emissive={active || queued ? buttonColor : '#000000'}
emissiveIntensity={active ? 0.28 : queued ? 0.18 : 0}
metalness={0.22}
roughness={0.3}
/>
</mesh>
{label && (
<MeshButtonLabel
color={labelColor}
label={label}
position={[0, 0, faceZ]}
scale={radius * 0.72}
/>
)}
</group>
)
}
function DoorLeaf({
animated,
doorOpen,
height,
side,
width,
y,
z,
}: {
animated?:
| {
elevatorId: AnyNodeId
kind: 'cab'
}
| {
elevatorId: AnyNodeId
kind: 'landing'
levelId: AnyNodeId
}
doorOpen: number
height: number
side: 'left' | 'right'
width: number
y: number
z: number
}) {
const ref = useRef<Group>(null)
const direction = side === 'left' ? -1 : 1
const getLeafX = (openAmount: number) => direction * (width / 4 + openAmount * width * 0.34)
const leafWidth = Math.max(width / 2 - 0.018, 0.12)
const railHeight = Math.min(0.09, Math.max(0.055, height * 0.04))
const stileWidth = Math.min(0.07, Math.max(0.04, leafWidth * 0.18))
const glassWidth = Math.max(leafWidth - stileWidth * 2.2, 0.03)
const glassHeight = Math.max(height - railHeight * 3, 0.2)
useFrame(() => {
if (!(animated && ref.current)) return
const runtime = useInteractive.getState().elevators[animated.elevatorId]
const nextDoorOpen =
animated.kind === 'cab'
? (runtime?.doorOpen ?? 0)
: runtime?.currentLevelId === animated.levelId
? (runtime?.doorOpen ?? 0)
: 0
ref.current.position.x = getLeafX(nextDoorOpen)
}, 2.6)
return (
<group ref={ref} position={[getLeafX(doorOpen), y + height / 2, z]}>
<mesh castShadow position={[0, height / 2 - railHeight / 2, 0]} receiveShadow>
<boxGeometry args={[leafWidth, railHeight, 0.05]} />
<meshStandardMaterial color={DOOR_COLOR} metalness={0.34} roughness={0.34} />
</mesh>
<mesh castShadow position={[0, -height / 2 + railHeight / 2, 0]} receiveShadow>
<boxGeometry args={[leafWidth, railHeight, 0.05]} />
<meshStandardMaterial color={DOOR_COLOR} metalness={0.34} roughness={0.34} />
</mesh>
<mesh castShadow position={[-leafWidth / 2 + stileWidth / 2, 0, 0]} receiveShadow>
<boxGeometry args={[stileWidth, height, 0.05]} />
<meshStandardMaterial color={DOOR_COLOR} metalness={0.34} roughness={0.34} />
</mesh>
<mesh castShadow position={[leafWidth / 2 - stileWidth / 2, 0, 0]} receiveShadow>
<boxGeometry args={[stileWidth, height, 0.05]} />
<meshStandardMaterial color={DOOR_COLOR} metalness={0.34} roughness={0.34} />
</mesh>
<mesh position={[0, 0, -0.004]}>
<boxGeometry args={[glassWidth, glassHeight, 0.012]} />
<meshStandardMaterial
color={GLASS_COLOR}
depthWrite={false}
metalness={0}
opacity={0.2}
roughness={0.08}
transparent
/>
</mesh>
</group>
)
}
function LandingDoorFrame({
doorHeight,
doorWidth,
levelTopY,
levelY,
shaftWidth,
z,
}: {
doorHeight: number
doorWidth: number
levelTopY: number
levelY: number
shaftWidth: number
z: number
}) {
const wallDepth = 0.09
const levelHeight = Math.max(levelTopY - levelY, doorHeight + 0.24)
const jambWidth = Math.max((shaftWidth - doorWidth) / 2, 0.08)
const jambCenterOffset = doorWidth / 2 + jambWidth / 2
const headerHeight = Math.max(levelHeight - doorHeight, 0.14)
const trim = 0.055
return (
<>
<mesh castShadow position={[-jambCenterOffset, levelY + levelHeight / 2, z]} receiveShadow>
<boxGeometry args={[jambWidth, levelHeight, wallDepth]} />
<meshStandardMaterial color={SHAFT_WALL_COLOR} metalness={0.08} roughness={0.56} />
</mesh>
<mesh castShadow position={[jambCenterOffset, levelY + levelHeight / 2, z]} receiveShadow>
<boxGeometry args={[jambWidth, levelHeight, wallDepth]} />
<meshStandardMaterial color={SHAFT_WALL_COLOR} metalness={0.08} roughness={0.56} />
</mesh>
<mesh castShadow position={[0, levelY + doorHeight + headerHeight / 2, z]} receiveShadow>
<boxGeometry args={[shaftWidth, headerHeight, wallDepth]} />
<meshStandardMaterial color={SHAFT_WALL_COLOR} metalness={0.08} roughness={0.56} />
</mesh>
<mesh castShadow position={[0, levelY + trim / 2, z - 0.006]} receiveShadow>
<boxGeometry args={[doorWidth + trim * 2, trim, wallDepth * 1.12]} />
<meshStandardMaterial color={SHAFT_TRIM_COLOR} metalness={0.2} roughness={0.38} />
</mesh>
<mesh
castShadow
position={[-doorWidth / 2 - trim / 2, levelY + doorHeight / 2, z - 0.006]}
receiveShadow
>
<boxGeometry args={[trim, doorHeight, wallDepth * 1.12]} />
<meshStandardMaterial color={SHAFT_TRIM_COLOR} metalness={0.2} roughness={0.38} />
</mesh>
<mesh
castShadow
position={[doorWidth / 2 + trim / 2, levelY + doorHeight / 2, z - 0.006]}
receiveShadow
>
<boxGeometry args={[trim, doorHeight, wallDepth * 1.12]} />
<meshStandardMaterial color={SHAFT_TRIM_COLOR} metalness={0.2} roughness={0.38} />
</mesh>
<mesh castShadow position={[0, levelY + doorHeight + trim / 2, z - 0.006]} receiveShadow>
<boxGeometry args={[doorWidth + trim * 2, trim, wallDepth * 1.12]} />
<meshStandardMaterial color={SHAFT_TRIM_COLOR} metalness={0.2} roughness={0.38} />
</mesh>
</>
)
}
function LandingDoor({
animated,
elevatorId,
doorOpen,
doorHeight,
doorWidth,
levelId,
levelY,
z,
}: {
animated: boolean
elevatorId: AnyNodeId
doorOpen: number
doorHeight: number
doorWidth: number
levelId: AnyNodeId
levelY: number
z: number
}) {
return (
<>
<DoorLeaf
animated={animated ? { elevatorId, kind: 'landing', levelId } : undefined}
doorOpen={doorOpen}
height={doorHeight}
side="left"
width={doorWidth}
y={levelY}
z={z}
/>
<DoorLeaf
animated={animated ? { elevatorId, kind: 'landing', levelId } : undefined}
doorOpen={doorOpen}
height={doorHeight}
side="right"
width={doorWidth}
y={levelY}
z={z}
/>
</>
)
}
export const ElevatorRenderer = ({ node }: { node: ElevatorNode }) => {
const ref = useRef<Group>(null!)
const cabRef = useRef<Group>(null)
const nodes = useScene((state) => state.nodes)
const handlers = useNodeEvents(node, 'elevator')
const liveOverrides = useLiveNodeOverrides((state) => state.get(node.id))
const renderNode = useMemo(
() => (liveOverrides ? ({ ...node, ...liveOverrides } as ElevatorNode) : node),
[liveOverrides, node],
)
useRegistry(node.id, 'elevator', ref)
const { entries, defaultEntry, shaftBaseY, shaftTopY, totalHeight } = useMemo(
() => resolveElevatorLevels(renderNode, nodes),
[renderNode, nodes],
)
const elevatorId = node.id as AnyNodeId
const runtimeStatus = useInteractive(
useShallow((state) => {
const runtime = state.elevators[elevatorId]
if (!runtime) return null
return {
currentLevelId: runtime.currentLevelId,
phase: runtime.phase,
queue: runtime.queue,
targetLevelId: runtime.targetLevelId,
}
}),
)
useEffect(() => {
if (!defaultEntry) return
const elevatorId = node.id as AnyNodeId
const interactive = useInteractive.getState()
const current = interactive.elevators[elevatorId]
if (!current) {
interactive.initElevator(elevatorId, defaultEntry.id as AnyNodeId, defaultEntry.baseY)
} else if (!entries.some((entry) => entry.id === current.currentLevelId)) {
interactive.setElevatorState(elevatorId, {
carY: defaultEntry.baseY,
currentLevelId: defaultEntry.id as AnyNodeId,
doorOpen: 0,
phase: 'idle',
phaseStartedAt: null,
queue: [],
targetLevelId: null,
})
}
}, [defaultEntry, entries, node.id])
useEffect(() => {
return () => {
useInteractive.getState().removeElevator(elevatorId)
}
}, [elevatorId])
useFrame(() => {
if (!cabRef.current) return
const runtime = useInteractive.getState().elevators[elevatorId]
if (!runtime) return
cabRef.current.position.y = runtime.carY
}, 2.6)
const shaftWidth = Math.max(renderNode.width, 0.8)
const shaftDepth = Math.max(renderNode.depth, 0.8)
const cabHeight = Math.max(renderNode.cabHeight, 1.4)
const doorWidth = Math.min(Math.max(renderNode.doorWidth, 0.45), shaftWidth - 0.18)
const doorHeight = Math.min(Math.max(renderNode.doorHeight, 1.2), cabHeight - 0.1)
const shaftHeight = Math.max(totalHeight, cabHeight + 0.3)
const resolvedShaftTopY = Math.max(shaftTopY, shaftBaseY + shaftHeight)
const shaftWallThickness = 0.09
const runtimeSnapshot = useInteractive.getState().elevators[elevatorId]
const cabBaseY = runtimeSnapshot?.carY ?? defaultEntry?.baseY ?? 0
const activeLevelId =
runtimeStatus?.currentLevelId ?? runtimeSnapshot?.currentLevelId ?? defaultEntry?.id ?? null
const pendingLevelId =
runtimeStatus?.targetLevelId ??
runtimeSnapshot?.targetLevelId ??
runtimeStatus?.queue[0] ??
runtimeSnapshot?.queue[0] ??
null
const currentEntry =
entries.find((entry) => entry.id === activeLevelId) ?? defaultEntry ?? entries[0] ?? null
const pendingEntry = pendingLevelId ? entries.find((entry) => entry.id === pendingLevelId) : null
const indicatorEntry = pendingEntry ?? currentEntry
const indicatorDirection =
currentEntry && pendingEntry && Math.abs(pendingEntry.baseY - currentEntry.baseY) > 0.001
? pendingEntry.baseY > currentEntry.baseY
? 'up'
: 'down'
: null
const indicatorActive = Boolean(
pendingEntry ||
runtimeStatus?.phase === 'moving' ||
runtimeSnapshot?.phase === 'moving' ||
runtimeStatus?.phase === 'opening' ||
runtimeSnapshot?.phase === 'opening',
)
const queuedLevelIds = new Set<string>()
for (const levelId of runtimeStatus?.queue ?? runtimeSnapshot?.queue ?? [])
queuedLevelIds.add(levelId)
if (runtimeStatus?.targetLevelId ?? runtimeSnapshot?.targetLevelId) {
queuedLevelIds.add((runtimeStatus?.targetLevelId ?? runtimeSnapshot?.targetLevelId)!)
}
const doorOpen = runtimeSnapshot?.doorOpen ?? 0
const frontWallZ = -shaftDepth / 2 - shaftWallThickness / 2
const frontZ = frontWallZ - shaftWallThickness / 2 - 0.018
const landingPanelX = Math.min(shaftWidth / 2 - 0.16, doorWidth / 2 + 0.18)
const cabPanelX = shaftWidth / 2 - 0.075
const cabPanelZ = -shaftDepth / 2 + 0.36
const cabButtonColumns = entries.length > 1 ? 2 : 1
const cabButtonRows = Math.max(1, Math.ceil(entries.length / cabButtonColumns))
const cabButtonSpacingX = 0.14
const cabButtonSpacingY = 0.15
const cabPanelWidth = cabButtonColumns * cabButtonSpacingX + 0.13
const cabPanelHeight = cabButtonRows * cabButtonSpacingY + 0.12
const panelRelativeY = Math.min(Math.max(doorHeight * 0.6, 0.95), cabHeight - 0.35)
const cabPanelY = panelRelativeY
const entrySpans = entries.map((entry, index) => {
const nextEntry = entries[index + 1]
return {
entry,
levelTopY: Math.max(nextEntry?.baseY ?? resolvedShaftTopY, entry.baseY + doorHeight + 0.24),
}
})
const requestLevel = (levelId: AnyNodeId) => {
useInteractive.getState().requestElevator(elevatorId, levelId)
}
return (
<group
position={renderNode.position}
ref={ref}
rotation-y={renderNode.rotation}
visible={renderNode.visible}
{...handlers}
>
<mesh
castShadow
position={[0, shaftBaseY + shaftHeight / 2, shaftDepth / 2 + shaftWallThickness / 2]}
receiveShadow
>
<boxGeometry
args={[shaftWidth + shaftWallThickness * 2, shaftHeight, shaftWallThickness]}
/>
<meshStandardMaterial color={SHAFT_SIDE_COLOR} metalness={0.12} roughness={0.58} />
</mesh>
<mesh
castShadow
position={[-shaftWidth / 2 - shaftWallThickness / 2, shaftBaseY + shaftHeight / 2, 0]}
receiveShadow
>
<boxGeometry
args={[shaftWallThickness, shaftHeight, shaftDepth + shaftWallThickness * 2]}
/>
<meshStandardMaterial color={SHAFT_SIDE_COLOR} metalness={0.12} roughness={0.58} />
</mesh>
<mesh
castShadow
position={[shaftWidth / 2 + shaftWallThickness / 2, shaftBaseY + shaftHeight / 2, 0]}
receiveShadow
>
<boxGeometry
args={[shaftWallThickness, shaftHeight, shaftDepth + shaftWallThickness * 2]}
/>
<meshStandardMaterial color={SHAFT_SIDE_COLOR} metalness={0.12} roughness={0.58} />
</mesh>
<mesh
castShadow
position={[0, shaftBaseY + shaftHeight - shaftWallThickness / 2, 0]}
receiveShadow
>
<boxGeometry
args={[
shaftWidth + shaftWallThickness * 2,
shaftWallThickness,
shaftDepth + shaftWallThickness * 2,
]}
/>
<meshStandardMaterial color={SHAFT_SIDE_COLOR} metalness={0.12} roughness={0.58} />
</mesh>
<group ref={cabRef} position={[0, cabBaseY, 0]}>
<mesh castShadow position={[0, 0.04, 0]} receiveShadow>
<boxGeometry args={[shaftWidth, 0.08, shaftDepth]} />
<meshStandardMaterial color={CAB_COLOR} metalness={0.18} roughness={0.45} />
</mesh>
<mesh castShadow position={[0, cabHeight - 0.04, 0]} receiveShadow>
<boxGeometry args={[shaftWidth, 0.08, shaftDepth]} />
<meshStandardMaterial color={CAB_COLOR} metalness={0.18} roughness={0.45} />
</mesh>
<mesh castShadow position={[0, cabHeight / 2, shaftDepth / 2 - 0.04]} receiveShadow>
<boxGeometry args={[shaftWidth, cabHeight, 0.08]} />
<meshStandardMaterial color={CAB_COLOR} metalness={0.2} roughness={0.48} />
</mesh>
<mesh castShadow position={[-shaftWidth / 2 + 0.04, cabHeight / 2, 0]} receiveShadow>
<boxGeometry args={[0.08, cabHeight, shaftDepth]} />
<meshStandardMaterial color={CAB_COLOR} metalness={0.2} roughness={0.48} />
</mesh>
<mesh castShadow position={[shaftWidth / 2 - 0.04, cabHeight / 2, 0]} receiveShadow>
<boxGeometry args={[0.08, cabHeight, shaftDepth]} />
<meshStandardMaterial color={CAB_COLOR} metalness={0.2} roughness={0.48} />
</mesh>
<DoorLeaf
animated={{ elevatorId, kind: 'cab' }}
doorOpen={doorOpen}
height={doorHeight}
side="left"
width={doorWidth}
y={0}
z={frontZ}
/>
<DoorLeaf
animated={{ elevatorId, kind: 'cab' }}
doorOpen={doorOpen}
height={doorHeight}
side="right"
width={doorWidth}
y={0}
z={frontZ}
/>
<ElevatorFloorIndicator
active={indicatorActive}
direction={indicatorDirection}
faceSign={1}
label={indicatorEntry?.label ?? '-'}
position={[0, doorHeight + 0.13, frontZ + 0.055]}
scale={0.78}
/>
<group position={[cabPanelX, cabPanelY, cabPanelZ]} rotation-y={-Math.PI / 2}>
<mesh castShadow receiveShadow>
<boxGeometry args={[cabPanelWidth, cabPanelHeight, 0.045]} />
<meshStandardMaterial color={PANEL_COLOR} metalness={0.32} roughness={0.36} />
</mesh>
{entries.map((entry, index) => {
const column = index % cabButtonColumns
const row = Math.floor(index / cabButtonColumns)
const x = (column - (cabButtonColumns - 1) / 2) * cabButtonSpacingX
const y = ((cabButtonRows - 1) / 2 - row) * cabButtonSpacingY
return (
<ElevatorMeshButton
active={activeLevelId === entry.id}
buttonKind="cab"
elevatorId={elevatorId}
faceSign={1}
key={entry.id}
label={entry.label}
levelId={entry.id as AnyNodeId}
onRequest={() => requestLevel(entry.id as AnyNodeId)}
position={[x, y, 0.045]}
queued={queuedLevelIds.has(entry.id)}
/>
)
})}
</group>
</group>
{entrySpans.map(({ entry, levelTopY }) => (
<group key={entry.id}>
<LandingDoorFrame
doorHeight={doorHeight}
doorWidth={doorWidth}
levelTopY={levelTopY}
levelY={entry.baseY}
shaftWidth={shaftWidth}
z={frontWallZ}
/>
<LandingDoor
animated={activeLevelId === entry.id}
elevatorId={elevatorId}
doorHeight={doorHeight}
doorOpen={activeLevelId === entry.id ? doorOpen : 0}
doorWidth={doorWidth}
levelId={entry.id as AnyNodeId}
levelY={entry.baseY}
z={frontZ - 0.02}
/>
<ElevatorFloorIndicator
active={indicatorActive || activeLevelId === entry.id || queuedLevelIds.has(entry.id)}
direction={indicatorDirection}
label={indicatorEntry?.label ?? entry.label}
position={[0, entry.baseY + doorHeight + 0.16, frontZ - 0.055]}
scale={0.62}
/>
<group position={[landingPanelX, entry.baseY + panelRelativeY, frontZ - 0.035]}>
<mesh castShadow receiveShadow>
<boxGeometry args={[0.18, 0.42, 0.04]} />
<meshStandardMaterial color={PANEL_COLOR} metalness={0.25} roughness={0.4} />
</mesh>
<ElevatorMeshButton
active={activeLevelId === entry.id && doorOpen > 0.5}
buttonKind="landing"
elevatorId={elevatorId}
levelId={entry.id as AnyNodeId}
onRequest={() => requestLevel(entry.id as AnyNodeId)}
position={[0, 0.06, -0.045]}
queued={queuedLevelIds.has(entry.id)}
radius={0.045}
/>
<mesh position={[0, -0.12, -0.035]}>
<boxGeometry args={[0.095, 0.025, 0.012]} />
<meshStandardMaterial
color={queuedLevelIds.has(entry.id) ? '#fbbf24' : '#64748b'}
emissive={queuedLevelIds.has(entry.id) ? '#fbbf24' : '#000000'}
emissiveIntensity={queuedLevelIds.has(entry.id) ? 0.16 : 0}
metalness={0.18}
roughness={0.42}
/>
</mesh>
</group>
</group>
))}
</group>
)
}
@@ -5,6 +5,7 @@ import { BuildingRenderer } from './building/building-renderer'
import { CeilingRenderer } from './ceiling/ceiling-renderer'
import { ColumnRenderer } from './column/column-renderer'
import { DoorRenderer } from './door/door-renderer'
import { ElevatorRenderer } from './elevator/elevator-renderer'
import { FenceRenderer } from './fence/fence-renderer'
import { GuideRenderer } from './guide/guide-renderer'
import { ItemRenderer } from './item/item-renderer'
@@ -32,6 +33,7 @@ export const NodeRenderer = ({ nodeId }: { nodeId: AnyNode['id'] }) => {
{node.type === 'building' && <BuildingRenderer node={node} />}
{node.type === 'ceiling' && <CeilingRenderer node={node} />}
{node.type === 'column' && <ColumnRenderer node={node} />}
{node.type === 'elevator' && <ElevatorRenderer node={node} />}
{node.type === 'level' && <LevelRenderer node={node} />}
{node.type === 'item' && <ItemRenderer node={node} />}
{node.type === 'slab' && <SlabRenderer node={node} />}
@@ -1,8 +1,8 @@
import { type SiteNode, type SlabNode, useRegistry, useScene } from '@pascal-app/core'
import polygonClipping from 'polygon-clipping'
import { useMemo, useRef } from 'react'
import { BufferGeometry, Float32BufferAttribute, type Group, Path, Shape } from 'three'
import { useNodeEvents } from '../../../hooks/use-node-events'
import { unionPolygons } from '../../../lib/polygon-union'
import useViewer from '../../../store/use-viewer'
import { NodeRenderer } from '../node-renderer'
@@ -89,22 +89,12 @@ export const SiteRenderer = ({ node }: { node: SiteNode }) => {
shape.closePath()
if (slabPolygons.length > 0) {
const multiPolygons = slabPolygons.map((p) => [
p.map((pt) => [pt[0], -pt[1]] as [number, number]),
])
const unioned = polygonClipping.union(
multiPolygons[0] as polygonClipping.Polygon,
...(multiPolygons.slice(1) as polygonClipping.Polygon[]),
)
for (const geom of unioned) {
const ring = geom[0]
if (ring && ring.length > 0) {
const hole = new Path()
hole.moveTo(ring[0]![0], ring[0]![1])
for (let i = 1; i < ring.length; i++) hole.lineTo(ring[i]![0], ring[i]![1])
hole.closePath()
shape.holes.push(hole)
}
for (const ring of unionPolygons(slabPolygons.map((p) => p.map((pt) => [pt[0], -pt[1]])))) {
const hole = new Path()
hole.moveTo(ring[0]![0], ring[0]![1])
for (let i = 1; i < ring.length; i++) hole.lineTo(ring[i]![0], ring[i]![1])
hole.closePath()
shape.holes.push(hole)
}
}
@@ -1,7 +1,7 @@
import { type LevelNode, useScene } from '@pascal-app/core'
import polygonClipping from 'polygon-clipping'
import { useMemo } from 'react'
import * as THREE from 'three'
import { unionPolygons } from '../../lib/polygon-union'
import useViewer from '../../store/use-viewer'
export const GroundOccluder = () => {
@@ -64,31 +64,15 @@ export const GroundOccluder = () => {
})
if (polygons.length > 0) {
// Format for polygon-clipping: [[[x, y], [x, y], ...]]
const multiPolygons = polygons.map((pts) => {
const ring = pts.map((p) => [p[0], -p[1]] as [number, number]) // Negate Y (which was Z)
return [ring]
})
for (const ring of unionPolygons(polygons.map((pts) => pts.map((p) => [p[0], -p[1]])))) {
const hole = new THREE.Path()
// Union all polygons together to prevent artifacts from overlapping
const unionedPolygons = polygonClipping.union(multiPolygons[0]!, ...multiPolygons.slice(1))
// Add each resulting unioned polygon as a hole
for (const geom of unionedPolygons) {
// First ring in each geometry is the exterior ring
if (geom.length > 0) {
const ring = geom[0]!
const hole = new THREE.Path()
if (ring.length > 0) {
hole.moveTo(ring[0]![0], ring[0]![1])
for (let i = 1; i < ring.length; i++) {
hole.lineTo(ring[i]![0], ring[i]![1])
}
hole.closePath()
s.holes.push(hole)
}
hole.moveTo(ring[0]![0], ring[0]![1])
for (let i = 1; i < ring.length; i++) {
hole.lineTo(ring[i]![0], ring[i]![1])
}
hole.closePath()
s.holes.push(hole)
}
}
@@ -8,6 +8,8 @@ import useViewer from '../../store/use-viewer'
import { CeilingSystem } from '../../systems/ceiling/ceiling-system'
import { DoorAnimationSystem } from '../../systems/door/door-animation-system'
import { DoorSystem } from '../../systems/door/door-system'
import { ElevatorAnimationSystem } from '../../systems/elevator/elevator-animation-system'
import { ElevatorOpeningSystem } from '../../systems/elevator/elevator-opening-system'
import { FenceSystem } from '../../systems/fence/fence-system'
import { GuideSystem } from '../../systems/guide/guide-system'
import { ItemSystem } from '../../systems/item/item-system'
@@ -94,8 +96,6 @@ type WebGPUDeviceLossInfo = {
type WebGPUDeviceLike = {
lost: Promise<WebGPUDeviceLossInfo>
label?: string
features?: Set<string>
addEventListener?: (type: string, listener: EventListener) => void
removeEventListener?: (type: string, listener: EventListener) => void
}
@@ -108,18 +108,9 @@ function GPUDeviceWatcher() {
const device = backend?.device as WebGPUDeviceLike | undefined
if (!device) {
console.warn('[viewer] No WebGPU device on backend — running on a fallback renderer.', {
backend: backend?.constructor?.name ?? 'unknown',
rendererType: (gl as any).constructor?.name ?? 'unknown',
})
return
}
console.log('[viewer] WebGPU device ready', {
label: device.label,
features: device.features ? Array.from(device.features) : [],
})
device.lost.then((info: WebGPUDeviceLossInfo) => {
console.error(
`[viewer] WebGPU device lost: reason="${info.reason ?? 'unknown'}", message="${info.message ?? ''}". ` +
@@ -167,24 +158,12 @@ const Viewer: React.FC<ViewerProps> = ({
const canvas = props.canvas
const cached = canvas ? WEBGPU_RENDERER_CACHE.get(canvas) : undefined
if (cached) return cached
// Surface the env we're about to ask WebGPU for — catches "no
// navigator.gpu" / "adapter request failed" silently failing in
// mobile WebViews where WebGPU is gated behind flags.
const hasGpu = typeof navigator !== 'undefined' && 'gpu' in navigator
console.log('[viewer] Creating WebGPURenderer', {
hasNavigatorGPU: hasGpu,
ua: typeof navigator !== 'undefined' ? navigator.userAgent : 'n/a',
})
const promise = (async () => {
try {
const renderer = new THREE.WebGPURenderer(props as any)
renderer.toneMapping = THREE.ACESFilmicToneMapping
renderer.toneMappingExposure = 0.9
await renderer.init()
console.log('[viewer] WebGPURenderer ready', {
backend: (renderer as any).backend?.constructor?.name,
isWebGPU: (renderer as any).isWebGPURenderer === true,
})
return renderer
} catch (err) {
// Drop the failed promise from the cache so a future Canvas
@@ -228,6 +207,8 @@ const Viewer: React.FC<ViewerProps> = ({
{/* Core systems */}
<CeilingSystem />
<DoorAnimationSystem />
<ElevatorAnimationSystem />
<ElevatorOpeningSystem />
<WindowAnimationSystem />
<DoorSystem />
<FenceSystem />
@@ -174,22 +174,9 @@ const PostProcessingPasses = ({
void pipelineVersion
if (!(renderer && scene && camera)) {
console.warn('[viewer/post-processing] Skipping pipeline build — missing dependency.', {
hasRenderer: !!renderer,
hasScene: !!scene,
hasCamera: !!camera,
})
return
}
console.log('[viewer/post-processing] Building pipeline', {
version: pipelineVersion,
ssgi: SSGI_PARAMS.enabled,
hoverHighlightMode,
projectId,
rendererCtor: (renderer as any).constructor?.name,
})
hasPipelineErrorRef.current = false
// WebGPU availability check: SSGI, denoise, and RenderPipeline are all
@@ -202,9 +189,6 @@ const PostProcessingPasses = ({
// exclusively and never attempts the TSL pipeline.
const hasWebGPU = typeof navigator !== 'undefined' && 'gpu' in navigator
if (!hasWebGPU) {
console.warn(
'[viewer] WebGPU unavailable — rendering without post-processing (SSGI, outlines, denoise).',
)
hasPipelineErrorRef.current = true
renderPipelineRef.current = null
return
@@ -331,7 +315,6 @@ const PostProcessingPasses = ({
renderPipeline.outputNode = finalOutput
renderPipelineRef.current = renderPipeline
retryCountRef.current = 0
console.log('[viewer/post-processing] Pipeline built OK', { version: pipelineVersion })
} catch (error) {
hasPipelineErrorRef.current = true
console.error(
@@ -410,9 +393,6 @@ const PostProcessingPasses = ({
if (retryCountRef.current < MAX_PIPELINE_RETRIES) {
// Auto-retry: schedule a pipeline rebuild if we haven't exceeded the retry limit
retryCountRef.current++
console.warn(
`[viewer/post-processing] Scheduling pipeline rebuild (attempt ${retryCountRef.current}/${MAX_PIPELINE_RETRIES})`,
)
if (rebuildTimeoutRef.current !== null) {
clearTimeout(rebuildTimeoutRef.current)
}
@@ -7,6 +7,8 @@ import {
type ColumnNode,
type DoorEvent,
type DoorNode,
type ElevatorEvent,
type ElevatorNode,
type EventSuffix,
emitter,
type FenceEvent,
@@ -57,6 +59,7 @@ type NodeConfig = {
'stair-segment': { node: StairSegmentNode; event: StairSegmentEvent }
window: { node: WindowNode; event: WindowEvent }
door: { node: DoorNode; event: DoorEvent }
elevator: { node: ElevatorNode; event: ElevatorEvent }
}
type NodeType = keyof NodeConfig
@@ -0,0 +1,77 @@
// @ts-expect-error — bun:test is provided by the Bun runtime; viewer does not
// depend on @types/bun so the import type is unresolved at compile time.
import { describe, expect, test } from 'bun:test'
import { type Point2D, unionPolygons } from './polygon-union'
function polygonArea(points: Point2D[]) {
let area = 0
for (let i = 0; i < points.length; i++) {
const current = points[i]!
const next = points[(i + 1) % points.length]!
area += current[0] * next[1] - next[0] * current[1]
}
return Math.abs(area / 2)
}
describe('unionPolygons', () => {
test('collapses a contained polygon into the containing polygon', () => {
const small: Point2D[] = [
[0, 0],
[1, 0],
[1, 1],
[0, 1],
]
const large: Point2D[] = [
[-1, -1],
[2, -1],
[2, 2],
[-1, 2],
]
const result = unionPolygons([small, large])
expect(result).toHaveLength(1)
expect(polygonArea(result[0]!)).toBeCloseTo(9)
})
test('combines overlapping rectangles into one boundary', () => {
const left: Point2D[] = [
[0, 0],
[2, 0],
[2, 2],
[0, 2],
]
const right: Point2D[] = [
[1, 1],
[3, 1],
[3, 3],
[1, 3],
]
const result = unionPolygons([left, right])
expect(result).toHaveLength(1)
expect(result[0]).toHaveLength(8)
expect(polygonArea(result[0]!)).toBeCloseTo(7)
})
test('keeps disjoint polygons as separate boundaries', () => {
const left: Point2D[] = [
[0, 0],
[1, 0],
[1, 1],
[0, 1],
]
const right: Point2D[] = [
[2, 0],
[3, 0],
[3, 1],
[2, 1],
]
const result = unionPolygons([left, right])
expect(result).toHaveLength(2)
expect(result.map(polygonArea)).toEqual([1, 1])
})
})
+294
View File
@@ -0,0 +1,294 @@
export type Point2D = [number, number]
const EPSILON = 1e-7
const KEY_SCALE = 1e6
type Edge = {
start: Point2D
end: Point2D
polygonIndex: number
splits: number[]
}
type Segment = {
start: Point2D
end: Point2D
used: boolean
}
function pointsEqual(a: Point2D, b: Point2D, tolerance = EPSILON) {
return Math.hypot(a[0] - b[0], a[1] - b[1]) <= tolerance
}
function pointKey(point: Point2D) {
return `${Math.round(point[0] * KEY_SCALE)}:${Math.round(point[1] * KEY_SCALE)}`
}
function interpolate(a: Point2D, b: Point2D, t: number): Point2D {
return [a[0] + (b[0] - a[0]) * t, a[1] + (b[1] - a[1]) * t]
}
function cross(ax: number, ay: number, bx: number, by: number) {
return ax * by - ay * bx
}
function polygonArea(points: Point2D[]) {
let area = 0
for (let i = 0; i < points.length; i++) {
const current = points[i]!
const next = points[(i + 1) % points.length]!
area += current[0] * next[1] - next[0] * current[1]
}
return area / 2
}
function pointOnSegment(point: Point2D, start: Point2D, end: Point2D) {
const dx = end[0] - start[0]
const dz = end[1] - start[1]
const crossValue = cross(point[0] - start[0], point[1] - start[1], dx, dz)
if (Math.abs(crossValue) > EPSILON) return false
const dot =
(point[0] - start[0]) * (point[0] - end[0]) + (point[1] - start[1]) * (point[1] - end[1])
return dot <= EPSILON
}
function pointInPolygon(point: Point2D, polygon: Point2D[]) {
let inside = false
for (let i = 0, j = polygon.length - 1; i < polygon.length; j = i++) {
const pi = polygon[i]!
const pj = polygon[j]!
if (pointOnSegment(point, pj, pi)) return false
const intersects =
pi[1] > point[1] !== pj[1] > point[1] &&
point[0] < ((pj[0] - pi[0]) * (point[1] - pi[1])) / (pj[1] - pi[1]) + pi[0]
if (intersects) inside = !inside
}
return inside
}
function normalizeRing(ring: Point2D[]) {
const normalized: Point2D[] = []
for (const [x, z] of ring) {
if (!Number.isFinite(x) || !Number.isFinite(z)) continue
const point: Point2D = [x, z]
const previous = normalized[normalized.length - 1]
if (!previous || !pointsEqual(previous, point)) {
normalized.push(point)
}
}
const first = normalized[0]
const last = normalized[normalized.length - 1]
if (first && last && pointsEqual(first, last)) {
normalized.pop()
}
if (normalized.length < 3 || Math.abs(polygonArea(normalized)) <= EPSILON) return []
return polygonArea(normalized) < 0 ? [...normalized].reverse() : normalized
}
function addSplit(edge: Edge, t: number) {
if (t < -EPSILON || t > 1 + EPSILON) return
const clamped = Math.max(0, Math.min(1, t))
if (edge.splits.some((split) => Math.abs(split - clamped) <= EPSILON)) return
edge.splits.push(clamped)
}
function parameterOnEdge(point: Point2D, edge: Edge) {
const dx = edge.end[0] - edge.start[0]
const dz = edge.end[1] - edge.start[1]
const lengthSquared = dx * dx + dz * dz
if (lengthSquared <= EPSILON) return 0
return ((point[0] - edge.start[0]) * dx + (point[1] - edge.start[1]) * dz) / lengthSquared
}
function addIntersectionSplits(left: Edge, right: Edge) {
const rx = left.end[0] - left.start[0]
const rz = left.end[1] - left.start[1]
const sx = right.end[0] - right.start[0]
const sz = right.end[1] - right.start[1]
const qpx = right.start[0] - left.start[0]
const qpz = right.start[1] - left.start[1]
const denominator = cross(rx, rz, sx, sz)
const numerator = cross(qpx, qpz, rx, rz)
if (Math.abs(denominator) <= EPSILON) {
if (Math.abs(numerator) > EPSILON) return
for (const point of [left.start, left.end, right.start, right.end]) {
if (
pointOnSegment(point, left.start, left.end) &&
pointOnSegment(point, right.start, right.end)
) {
addSplit(left, parameterOnEdge(point, left))
addSplit(right, parameterOnEdge(point, right))
}
}
return
}
const t = cross(qpx, qpz, sx, sz) / denominator
const u = cross(qpx, qpz, rx, rz) / denominator
if (t < -EPSILON || t > 1 + EPSILON || u < -EPSILON || u > 1 + EPSILON) return
addSplit(left, t)
addSplit(right, u)
}
function buildEdges(polygons: Point2D[][]) {
const edges: Edge[] = []
polygons.forEach((polygon, polygonIndex) => {
for (let i = 0; i < polygon.length; i++) {
edges.push({
start: polygon[i]!,
end: polygon[(i + 1) % polygon.length]!,
polygonIndex,
splits: [0, 1],
})
}
})
for (let i = 0; i < edges.length; i++) {
for (let j = i + 1; j < edges.length; j++) {
const left = edges[i]!
const right = edges[j]!
if (left.polygonIndex === right.polygonIndex) continue
addIntersectionSplits(left, right)
}
}
return edges
}
function buildBoundarySegments(edges: Edge[], polygons: Point2D[][]) {
const segments: Segment[] = []
for (const edge of edges) {
const splits = [...edge.splits].sort((a, b) => a - b)
for (let i = 0; i < splits.length - 1; i++) {
const startT = splits[i]!
const endT = splits[i + 1]!
if (endT - startT <= EPSILON) continue
const start = interpolate(edge.start, edge.end, startT)
const end = interpolate(edge.start, edge.end, endT)
const mid = interpolate(edge.start, edge.end, (startT + endT) / 2)
const insideAnother = polygons.some(
(polygon, index) => index !== edge.polygonIndex && pointInPolygon(mid, polygon),
)
if (!insideAnother) {
segments.push({ start, end, used: false })
}
}
}
return removeDuplicateInteriorSegments(segments)
}
function segmentKey(segment: Segment) {
const start = pointKey(segment.start)
const end = pointKey(segment.end)
return start < end ? `${start}|${end}` : `${end}|${start}`
}
function removeDuplicateInteriorSegments(segments: Segment[]) {
const groups = new Map<string, Segment[]>()
for (const segment of segments) {
const key = segmentKey(segment)
const group = groups.get(key)
if (group) {
group.push(segment)
} else {
groups.set(key, [segment])
}
}
const result: Segment[] = []
for (const group of groups.values()) {
if (group.length === 1) {
result.push(group[0]!)
continue
}
const firstStart = pointKey(group[0]!.start)
const firstEnd = pointKey(group[0]!.end)
const hasOppositeDirection = group.some(
(segment) => pointKey(segment.start) === firstEnd && pointKey(segment.end) === firstStart,
)
if (!hasOppositeDirection) {
result.push(group[0]!)
}
}
return result
}
function assembleRings(segments: Segment[]) {
const byStart = new Map<string, Segment[]>()
for (const segment of segments) {
const key = pointKey(segment.start)
const group = byStart.get(key)
if (group) {
group.push(segment)
} else {
byStart.set(key, [segment])
}
}
const rings: Point2D[][] = []
for (const firstSegment of segments) {
if (firstSegment.used) continue
firstSegment.used = true
const ring: Point2D[] = [firstSegment.start, firstSegment.end]
const startKey = pointKey(firstSegment.start)
let currentKey = pointKey(firstSegment.end)
while (currentKey !== startKey) {
const next = byStart.get(currentKey)?.find((segment) => !segment.used)
if (!next) break
next.used = true
ring.push(next.end)
currentKey = pointKey(next.end)
}
if (currentKey !== startKey) continue
const last = ring[ring.length - 1]
if (last && pointsEqual(ring[0]!, last)) {
ring.pop()
}
const normalized = normalizeRing(ring)
if (normalized.length >= 3) {
rings.push(normalized)
}
}
return rings
}
export function unionPolygons(polygons: Point2D[][]): Point2D[][] {
const validPolygons = polygons.map(normalizeRing).filter((polygon) => polygon.length >= 3)
if (validPolygons.length <= 1) return validPolygons
const edges = buildEdges(validPolygons)
const segments = buildBoundarySegments(edges, validPolygons)
const rings = assembleRings(segments)
return rings.length > 0 ? rings : validPolygons
}
@@ -1,6 +1,7 @@
import { useFrame } from '@react-three/fiber'
import { type AnyNodeId, type CeilingNode, sceneRegistry, useScene } from '@pascal-app/core'
import { useFrame } from '@react-three/fiber'
import * as THREE from 'three'
import { mergeSurfaceHolePolygons } from '../surface-hole-geometry'
function ensureUv2Attribute(geometry: THREE.BufferGeometry) {
const uv = geometry.getAttribute('uv')
@@ -82,7 +83,7 @@ export function generateCeilingGeometry(ceilingNode: CeilingNode): THREE.BufferG
shape.closePath()
// Add holes to the shape
const holes = ceilingNode.holes || []
const holes = mergeSurfaceHolePolygons(ceilingNode.holes || [])
for (const holePolygon of holes) {
if (holePolygon.length < 3) continue
@@ -0,0 +1,155 @@
import {
type AnyNodeId,
type ElevatorNode,
sceneRegistry,
useInteractive,
useScene,
} from '@pascal-app/core'
import { useFrame } from '@react-three/fiber'
import { resolveElevatorLevels } from './elevator-utils'
const EPSILON = 0.001
function moveToward(current: number, target: number, maxDelta: number) {
const delta = target - current
if (Math.abs(delta) <= maxDelta) return target
return current + Math.sign(delta) * maxDelta
}
export function ElevatorAnimationSystem() {
useFrame(({ clock }, delta) => {
const interactive = useInteractive.getState()
const nodes = useScene.getState().nodes
const now = clock.getElapsedTime() * 1000
for (const elevatorId of sceneRegistry.byType.elevator) {
const typedElevatorId = elevatorId as AnyNodeId
const node = nodes[typedElevatorId]
if (node?.type !== 'elevator') {
interactive.removeElevator(typedElevatorId)
continue
}
const elevator = node as ElevatorNode
const { entries, defaultEntry } = resolveElevatorLevels(elevator, nodes)
if (!defaultEntry) continue
const state = interactive.elevators[typedElevatorId]
if (!state) {
interactive.initElevator(typedElevatorId, defaultEntry.id as AnyNodeId, defaultEntry.baseY)
continue
}
const currentEntry =
entries.find((entry) => entry.id === state.currentLevelId) ?? defaultEntry
if (currentEntry.id !== state.currentLevelId) {
interactive.setElevatorState(typedElevatorId, {
currentLevelId: currentEntry.id as AnyNodeId,
carY: currentEntry.baseY,
targetLevelId: null,
phase: 'idle',
phaseStartedAt: null,
queue: [],
doorOpen: 0,
})
continue
}
const targetEntry = state.targetLevelId
? entries.find((entry) => entry.id === state.targetLevelId)
: state.queue[0]
? entries.find((entry) => entry.id === state.queue[0])
: null
const doorDurationMs = Math.max(elevator.doorDurationMs ?? 900, 1)
const doorStep = (delta * 1000) / doorDurationMs
switch (state.phase) {
case 'idle': {
const nextLevelId = state.queue[0] ?? null
if (!nextLevelId) {
if (state.doorOpen > EPSILON) {
interactive.setElevatorState(typedElevatorId, {
doorOpen: Math.max(0, state.doorOpen - doorStep),
})
}
break
}
interactive.setElevatorState(typedElevatorId, {
targetLevelId: nextLevelId,
phase:
state.doorOpen > EPSILON
? 'closing'
: nextLevelId === state.currentLevelId
? 'opening'
: 'moving',
phaseStartedAt: now,
})
break
}
case 'closing': {
const doorOpen = Math.max(0, state.doorOpen - doorStep)
interactive.setElevatorState(typedElevatorId, {
doorOpen,
phase: doorOpen <= EPSILON ? (state.targetLevelId ? 'moving' : 'idle') : 'closing',
phaseStartedAt: doorOpen <= EPSILON ? now : state.phaseStartedAt,
})
break
}
case 'moving': {
if (!targetEntry) {
interactive.setElevatorState(typedElevatorId, {
targetLevelId: null,
phase: 'idle',
queue: [],
})
break
}
const speed = Math.max(elevator.speed ?? 2.2, 0.1)
const nextY = moveToward(state.carY, targetEntry.baseY, speed * delta)
const arrived = Math.abs(nextY - targetEntry.baseY) <= EPSILON
interactive.setElevatorState(typedElevatorId, {
carY: nextY,
currentLevelId: arrived ? (targetEntry.id as AnyNodeId) : state.currentLevelId,
phase: arrived ? 'opening' : 'moving',
phaseStartedAt: arrived ? now : state.phaseStartedAt,
})
break
}
case 'opening': {
const doorOpen = Math.min(1, state.doorOpen + doorStep)
interactive.setElevatorState(typedElevatorId, {
doorOpen,
phase: doorOpen >= 1 - EPSILON ? 'open' : 'opening',
phaseStartedAt: doorOpen >= 1 - EPSILON ? now : state.phaseStartedAt,
targetLevelId: doorOpen >= 1 - EPSILON ? null : state.targetLevelId,
queue:
doorOpen >= 1 - EPSILON && state.queue[0] === state.currentLevelId
? state.queue.slice(1)
: state.queue,
})
break
}
case 'open': {
const elapsed = now - (state.phaseStartedAt ?? now)
if (elapsed < Math.max(elevator.dwellMs ?? 1400, 0)) break
interactive.setElevatorState(typedElevatorId, {
phase: 'closing',
phaseStartedAt: now,
targetLevelId: state.queue[0] ?? null,
})
break
}
}
}
}, 2)
return null
}
@@ -0,0 +1,54 @@
import { type AnyNode, syncAutoElevatorOpenings, useScene } from '@pascal-app/core'
import { useEffect, useRef } from 'react'
function isOpeningRelevantNode(node: AnyNode | undefined) {
return (
node?.type === 'building' ||
node?.type === 'ceiling' ||
node?.type === 'elevator' ||
node?.type === 'level' ||
node?.type === 'slab'
)
}
function hasOpeningRelevantNodeChange(
nextNodes: Record<string, AnyNode>,
prevNodes: Record<string, AnyNode>,
) {
if (nextNodes === prevNodes) return false
const ids = new Set([...Object.keys(nextNodes), ...Object.keys(prevNodes)])
for (const id of ids) {
const nextNode = nextNodes[id]
const prevNode = prevNodes[id]
if (nextNode === prevNode) continue
if (isOpeningRelevantNode(nextNode) || isOpeningRelevantNode(prevNode)) return true
}
return false
}
export const ElevatorOpeningSystem = () => {
const syncingAutoOpeningsRef = useRef(false)
useEffect(() => {
const applyUpdates = (updates: ReturnType<typeof syncAutoElevatorOpenings>) => {
if (updates.length === 0) return
syncingAutoOpeningsRef.current = true
useScene.getState().updateNodes(updates)
queueMicrotask(() => {
syncingAutoOpeningsRef.current = false
})
}
applyUpdates(syncAutoElevatorOpenings(useScene.getState().nodes))
return useScene.subscribe((state, prevState) => {
if (syncingAutoOpeningsRef.current) return
if (!hasOpeningRelevantNodeChange(state.nodes, prevState.nodes)) return
applyUpdates(syncAutoElevatorOpenings(state.nodes))
})
}, [])
return null
}
@@ -0,0 +1,68 @@
import {
resolveElevatorBuildingLevels,
resolveElevatorServiceLevels,
type AnyNode,
type AnyNodeId,
type ElevatorNode,
type LevelNode,
} from '@pascal-app/core'
import { getLevelHeight } from '../level/level-utils'
export type ElevatorLevelEntry = {
id: LevelNode['id']
label: string
baseY: number
}
export function resolveElevatorLevels(
elevator: ElevatorNode,
nodes: Record<AnyNodeId, AnyNode>,
): {
entries: ElevatorLevelEntry[]
defaultEntry: ElevatorLevelEntry | null
shaftBaseY: number
shaftTopY: number
totalHeight: number
} {
const allLevels = resolveElevatorBuildingLevels(elevator, nodes)
const baseYByLevelId = new Map<string, number>()
let cumulativeY = 0
for (const level of allLevels) {
baseYByLevelId.set(level.id, cumulativeY)
cumulativeY += getLevelHeight(level.id, nodes)
}
const serviceLevels = resolveElevatorServiceLevels(elevator, nodes)
const entries = serviceLevels.map((level) => ({
id: level.id,
label: String(level.level),
baseY: baseYByLevelId.get(level.id) ?? 0,
}))
const defaultEntry =
entries.find((entry) => entry.id === elevator.defaultLevelId) ??
entries.find((entry) => entry.id === elevator.fromLevelId) ??
entries[0] ??
null
const firstServedLevel = serviceLevels[0] ?? null
const lastServedLevel = serviceLevels[serviceLevels.length - 1] ?? null
const shaftBaseY = firstServedLevel ? (baseYByLevelId.get(firstServedLevel.id) ?? 0) : 0
const lastServedIndex = lastServedLevel
? allLevels.findIndex((level) => level.id === lastServedLevel.id)
: -1
const nextLevel = lastServedIndex >= 0 ? allLevels[lastServedIndex + 1] : null
const shaftTopY = nextLevel
? (baseYByLevelId.get(nextLevel.id) ?? cumulativeY)
: lastServedLevel
? cumulativeY
: elevator.cabHeight + 0.3
return {
entries,
defaultEntry,
shaftBaseY,
shaftTopY,
totalHeight: Math.max(shaftTopY - shaftBaseY, elevator.cabHeight + 0.3),
}
}
@@ -8,6 +8,7 @@ import {
import { useFrame } from '@react-three/fiber'
import { useEffect } from 'react'
import * as THREE from 'three'
import { mergeSurfaceHolePolygons } from '../surface-hole-geometry'
function ensureUv2Attribute(geometry: THREE.BufferGeometry) {
const uv = geometry.getAttribute('uv')
@@ -86,6 +87,7 @@ export function generateSlabGeometry(slabNode: SlabNode): THREE.BufferGeometry {
function generatePositiveSlabGeometry(slabNode: SlabNode): THREE.BufferGeometry {
const polygon = getRenderableSlabPolygon(slabNode)
const elevation = slabNode.elevation ?? 0.05
const holePolygons = mergeSurfaceHolePolygons(slabNode.holes ?? [])
if (polygon.length < 3) return new THREE.BufferGeometry()
@@ -94,7 +96,7 @@ function generatePositiveSlabGeometry(slabNode: SlabNode): THREE.BufferGeometry
for (let i = 1; i < polygon.length; i++) shape.lineTo(polygon[i]![0], -polygon[i]![1])
shape.closePath()
for (const holePolygon of slabNode.holes ?? []) {
for (const holePolygon of holePolygons) {
if (holePolygon.length < 3) continue
const holePath = new THREE.Path()
holePath.moveTo(holePolygon[0]![0], -holePolygon[0]![1])
@@ -122,6 +124,7 @@ function generatePositiveSlabGeometry(slabNode: SlabNode): THREE.BufferGeometry
function generatePoolGeometry(slabNode: SlabNode): THREE.BufferGeometry {
const polygon = getRenderableSlabPolygon(slabNode)
const depth = Math.abs(slabNode.elevation ?? 0.05)
const holePolygons = mergeSurfaceHolePolygons(slabNode.holes ?? [])
if (polygon.length < 3) return new THREE.BufferGeometry()
@@ -134,7 +137,7 @@ function generatePoolGeometry(slabNode: SlabNode): THREE.BufferGeometry {
for (const [x, z] of polygon) {
bounds.expandByPoint(new THREE.Vector2(x, z))
}
for (const hole of slabNode.holes ?? []) {
for (const hole of holePolygons) {
for (const [x, z] of hole) {
bounds.expandByPoint(new THREE.Vector2(x, z))
}
@@ -157,8 +160,8 @@ function generatePoolGeometry(slabNode: SlabNode): THREE.BufferGeometry {
for (const [x, z] of polygon) pushFloorVertex(x!, 0, z!)
const pts2d = polygon.map(([x, z]) => new THREE.Vector2(x!, z!))
const holesPts2d = (slabNode.holes ?? []).map((h) => h.map(([x, z]) => new THREE.Vector2(x!, z!)))
for (const hole of slabNode.holes ?? []) {
const holesPts2d = holePolygons.map((h) => h.map(([x, z]) => new THREE.Vector2(x!, z!)))
for (const hole of holePolygons) {
for (const [x, z] of hole) pushFloorVertex(x!, 0, z!)
}
@@ -0,0 +1,5 @@
import { type Point2D, unionPolygons } from '../lib/polygon-union'
export function mergeSurfaceHolePolygons(holes: Point2D[][]): Point2D[][] {
return unionPolygons(holes)
}