77442861d9 editor: complete floorplan construction documentation (#531)
* Add roof surface placement support for items

Items (e.g. solar panels) can now be placed on sloped roof surfaces.
The placement system computes euler rotation from the roof surface
normal so items sit flush on the slope instead of going inside.

- Add roofStrategy to placement-strategies with enter/move/click/leave
- Wire roof:enter/move/click/leave events in the placement coordinator
- Add calculateRoofRotation in placement-math using surface normals
- Support full 3D cursor rotation for sloped surfaces
- Items on roofs are parented to the level with world-space rotation

Co-Authored-By: Claude Opus 4.6 <noreply@anthropic.com>

* fixed conflict

* feat(floorplan): add construction dimension strings

* feat(floorplan): coordinate opening dimensions

* feat(floorplan): add opening documentation

* feat(floorplan): add construction dimensions and notes

* feat(floorplan): add interior dimensions and curved note leaders

* feat(floorplan): improve construction dimensions and document plan

* feat(floorplan): harden construction document output

* feat(floorplan): add annotation collision diagnostics

* feat(floorplan): size export annotations in paper space

* feat(floorplan): automatically separate overlapping labels

* fix(floorplan): resolve dense label overlaps

* fix(floorplan): remove stale collision warning overlays

* fix(floorplan): treat mark pills as collision obstacles

* feat(floorplan): place short dimension values outside

* fix(floorplan): preserve dimension string order

* fix(floorplan): avoid architectural geometry in label layout

* feat(floorplan): add dimension side fallback leaders

* docs(floorplan): update chapter 17 implementation status

* fix(floorplan): dimension subdivided interior walls

* feat: add associative floor plan dimensions

* feat: add continuous construction dimension strings

* feat: add structural floor plan grids

* feat: coordinate columns with structural grids

Snap column placement and movement to structural axes and intersections, derive associative grid references, and preserve floor-plan rotation by allowing secondary-button pointer moves through the grid drafting layer.

* feat: add architectural room documentation

Add room-role metadata, editable documentation fields, centered room labels, and persisted live/PDF visibility while preserving generic zone behavior.

* feat: generate architectural room schedules

Add registry-driven room schedule rows with unit-aware areas and heights, natural room ordering, enclosure resolution, and document-quality warnings.

* feat: add reliable room clear dimensions

Derive unit-aware clear dimensions from proven modeled inside wall faces for straight rectangular rooms, including rotated and split-wall enclosures, while suppressing unproven datums.

* feat: add architectural stair documentation

Add level-aware UP/DN graphics, derived flight and rail notes, plan break and overhead conventions, linked destination-level projection, and persisted live/PDF visibility.

* feat: add typed specialty construction notes

Add schema-validated specialty payloads, standardized plan notation, contract-scope metadata, configurable overhead outlines, and editor authoring controls.

* feat: add curved and circular dimensions

Add associative radius, diameter, center, chord, arc-length, angular, and coordinate modes with unit-aware notation, repeated-feature labels, 2D authoring, and document controls.

* feat: coordinate floor plan drawing types

Add persistent floor, foundation, reflected-ceiling, roof, and site plan views with per-dimension show, omit, reference, and foundation-controller behavior across live and PDF output.

* feat: add associative curved wall dimensions

Bind radius, center, chord, arc-length, and angular construction dimensions directly to curved wall geometry so annotations update when the host curve changes.

* fix: render automatic curved wall dimensions

The wall floor-plan builder explicitly skipped curved walls, leaving the associative authoring workflow as the only dimension path. Render a concentric arc-length dimension automatically and keep it governed by automatic-dimension visibility.

* fix: use radius callout for curved walls

Replace the automatic arc-length annotation with the source-standard radius method: computed center mark, radial leader, curve arrow, and R value. Keep adjacent linear strings responsible for locating the curve tangencies and depth.

* Implement construction dimension string editing

* Add construction dimension standards controls

* Apply drawing standards to automatic dimensions

* Add floorplan overhead and reference visibility controls

* Add view-specific dimension segment suppression

* Add persistent drawing sheet model

* Plot floorplan exports at fixed scale

* Apply paper-space annotation profiles

* Compose floorplan PDF sheets

* Support sheet paper sizes and preflight

* Persist pinned annotation layout overrides

* Expand annotation collision obstacles

* Add floorplan annotation preflight surface

* Add reusable drawing sheet general notes

* Add drawing sheet keyed note instances

* Add drawing sheet document markers

* Expand construction note leader terminators

* Add wall assembly layer model

* Resolve wall assembly datum references

* Add wall assembly floorplan graphics

* Add opening documentation dimension policies

* Add finish-face room clear dimensions

* Extend room clear dimensions to rectilinear rooms

* Add construction module advisories

* Add clearance advisory profiles

* Add dimension completeness audit

* Expand dimension completeness audit

* Include preflight issues in completeness audit

* feat: complete floorplan construction documentation

* refactor: remove construction note node

* feat: refine floorplan documentation and unit display

* fix(editor): improve floorplan PDF dimensions

* fix(floorplan): refresh annotation collision layout

* fix(floorplan): keep annotations clear and restore registry boundaries

* feat(floorplan): refine construction dimension references

* fix(floorplan): align documentation tools with architecture

---------

Co-authored-by: Claude Opus 4.6 <noreply@anthropic.com>
2026-07-22 14:02:17 -04:00
2026-01-21 10:11:30 +09:00
2026-03-13 09:07:46 +01:00
2026-01-14 07:26:59 +09:00
2026-03-10 09:40:07 +01:00
2026-02-11 06:35:56 +09:00

Pascal Editor

A 3D building editor built with React Three Fiber and WebGPU.

MIT License npm @pascal-app/core npm @pascal-app/viewer Discord X (Twitter)

https://github.com/user-attachments/assets/8b50e7cf-cebe-4579-9cf3-8786b35f7b6b

Using Published Packages

The viewer runtime and built-in node definitions are separate packages. Install the full built-in viewer set, then load the built-in plugin once before mounting <Viewer>:

npm install @pascal-app/core @pascal-app/viewer @pascal-app/editor @pascal-app/nodes
import { loadPlugin } from '@pascal-app/core'
import { builtinPlugin } from '@pascal-app/nodes'

await loadPlugin(builtinPlugin)

See the @pascal-app/viewer quick start for a React example.

Repository Architecture

This is a Turborepo monorepo with four main runtime packages:

editor/
├── apps/
│   └── editor/          # Next.js application
├── packages/
│   ├── core/            # Schemas, scene state, and registry contracts
│   ├── viewer/          # 3D rendering runtime and shared systems
│   ├── editor/          # Editing tools and UI components
│   ├── nodes/           # Built-in node definitions, renderers, and systems
│   └── ui/              # Shared UI components

Separation of Concerns

Package Responsibility
@pascal-app/core Node schemas, scene state (Zustand), registry contracts, spatial queries, and event bus
@pascal-app/viewer 3D rendering via React Three Fiber, shared render systems, default camera/controls, and post-processing
@pascal-app/editor Editing tools, panels, selection, and direct-manipulation UI
@pascal-app/nodes Built-in registry plugin with node definitions, renderers, geometry, and systems
apps/editor Standalone Next.js host for the editor packages

The viewer renders the scene with sensible defaults. The editor extends it with interactive tools, selection management, and editing capabilities.

Stores

Each package has its own Zustand store for managing state:

Store Package Responsibility
useScene @pascal-app/core Scene data: nodes, root IDs, dirty nodes, CRUD operations. Persisted to IndexedDB with undo/redo via Zundo.
useViewer @pascal-app/viewer Viewer state: current selection (building/level/zone IDs), level display mode (stacked/exploded/solo), camera mode.
useEditor apps/editor Editor state: active tool, structure layer visibility, panel states, editor-specific preferences.

Access patterns:

// Subscribe to state changes (React component)
const nodes = useScene((state) => state.nodes)
const levelId = useViewer((state) => state.selection.levelId)
const activeTool = useEditor((state) => state.tool)

// Access state outside React (callbacks, systems)
const node = useScene.getState().nodes[id]
useViewer.getState().setSelection({ levelId: 'level_123' })

Core Concepts

Nodes

Nodes are the data primitives that describe the 3D scene. All nodes extend BaseNode:

BaseNode {
  id: string              // Auto-generated with type prefix (e.g., "wall_abc123")
  type: string            // Discriminator for type-safe handling
  parentId: string | null // Parent node reference
  visible: boolean
  camera?: Camera         // Optional saved camera position
  metadata?: JSON         // Arbitrary metadata (e.g., { isTransient: true })
}

Node Hierarchy:

Site
└── Building
    └── Level
        ├── Wall → Item (doors, windows)
        ├── Slab
        ├── Ceiling → Item (lights)
        ├── Roof
        ├── Zone
        ├── Scan (3D reference)
        └── Guide (2D reference)

Nodes are stored in a flat dictionary (Record<id, Node>), not a nested tree. Parent-child relationships are defined via parentId and children arrays.


Scene State (Zustand Store)

The scene is managed by a Zustand store in @pascal-app/core:

useScene.getState() = {
  nodes: Record<id, AnyNode>,  // All nodes
  rootNodeIds: string[],       // Top-level nodes (sites)
  dirtyNodes: Set<string>,     // Nodes pending system updates

  createNode(node, parentId),
  updateNode(id, updates),
  deleteNode(id),
}

Middleware:

  • Persist - Saves to IndexedDB (excludes transient nodes)
  • Temporal (Zundo) - Undo/redo with 50-step history

Scene Registry

The registry maps node IDs to their Three.js objects for fast lookup:

sceneRegistry = {
  nodes: Map<id, Object3D>,    // ID → 3D object
  byType: {
    wall: Set<id>,
    item: Set<id>,
    zone: Set<id>,
    // ...
  }
}

Renderers register their refs using the useRegistry hook:

const ref = useRef<Mesh>(null!)
useRegistry(node.id, 'wall', ref)

This allows systems to access 3D objects directly without traversing the scene graph.


Node Renderers

Renderers are React components that create Three.js objects for each node type:

SceneRenderer
└── NodeRenderer (dispatches by type)
    ├── BuildingRenderer
    ├── LevelRenderer
    ├── WallRenderer
    ├── SlabRenderer
    ├── ZoneRenderer
    ├── ItemRenderer
    └── ...

Pattern:

  1. Renderer creates a placeholder mesh/group
  2. Registers it with useRegistry
  3. Systems update geometry based on node data

Example (simplified):

const WallRenderer = ({ node }) => {
  const ref = useRef<Mesh>(null!)
  useRegistry(node.id, 'wall', ref)

  return (
    <mesh ref={ref}>
      <boxGeometry args={[0, 0, 0]} />  {/* Replaced by WallSystem */}
      <meshStandardMaterial />
      {node.children.map(id => <NodeRenderer key={id} nodeId={id} />)}
    </mesh>
  )
}

Systems

Systems are React components that run in the render loop (useFrame) to update geometry and transforms. They process dirty nodes marked by the store.

Core Systems (in @pascal-app/core):

System Responsibility
WallSystem Generates wall geometry with mitering and CSG cutouts for doors/windows
SlabSystem Generates floor geometry from polygons
CeilingSystem Generates ceiling geometry
RoofSystem Generates roof geometry
ItemSystem Positions items on walls, ceilings, or floors (slab elevation)

Viewer Systems (in @pascal-app/viewer):

System Responsibility
LevelSystem Handles level visibility and vertical positioning (stacked/exploded/solo modes)
ScanSystem Controls 3D scan visibility
GuideSystem Controls guide image visibility

Processing Pattern:

useFrame(() => {
  for (const id of dirtyNodes) {
    const obj = sceneRegistry.nodes.get(id)
    const node = useScene.getState().nodes[id]

    // Update geometry, transforms, etc.
    updateGeometry(obj, node)

    dirtyNodes.delete(id)
  }
})

Dirty Nodes

When a node changes, it's marked as dirty in useScene.getState().dirtyNodes. Systems check this set each frame and only recompute geometry for dirty nodes.

// Automatic: createNode, updateNode, deleteNode mark nodes dirty
useScene.getState().updateNode(wallId, { thickness: 0.2 })
// → wallId added to dirtyNodes
// → WallSystem regenerates geometry next frame
// → wallId removed from dirtyNodes

Manual marking:

useScene.getState().dirtyNodes.add(wallId)

Event Bus

Inter-component communication uses a typed event emitter (mitt):

// Node events
emitter.on('wall:click', (event) => { ... })
emitter.on('item:enter', (event) => { ... })
emitter.on('zone:context-menu', (event) => { ... })

// Grid events (background)
emitter.on('grid:click', (event) => { ... })

// Event payload
NodeEvent {
  node: AnyNode
  position: [x, y, z]
  localPosition: [x, y, z]
  normal?: [x, y, z]
  stopPropagation: () => void
}

Spatial Grid Manager

Handles collision detection and placement validation:

spatialGridManager.canPlaceOnFloor(levelId, position, dimensions, rotation)
spatialGridManager.canPlaceOnWall(wallId, t, height, dimensions)
spatialGridManager.getSlabElevationAt(levelId, x, z)

Used by item placement tools to validate positions and calculate slab elevations.


Editor Architecture

The editor extends the viewer with:

Tools

Tools are activated via the toolbar and handle user input for specific operations:

  • SelectTool - Selection and manipulation
  • WallTool - Draw walls
  • ZoneTool - Create zones
  • ItemTool - Place furniture/fixtures
  • SlabTool - Create floor slabs

Selection Manager

The editor uses a custom selection manager with hierarchical navigation:

Site → Building → Level → Zone → Items

Each depth level has its own selection strategy for hover/click behavior.

Editor-Specific Systems

  • ZoneSystem - Controls zone visibility based on level mode
  • Custom camera controls with node focusing

Data Flow

User Action (click, drag)
       ↓
Tool Handler
       ↓
useScene.createNode() / updateNode()
       ↓
Node added/updated in store
Node marked dirty
       ↓
React re-renders NodeRenderer
useRegistry() registers 3D object
       ↓
System detects dirty node (useFrame)
Updates geometry via sceneRegistry
Clears dirty flag

Building a Plugin

The editor is extensible: a plugin ships node kinds (schema, 3D/2D rendering, placement tools, inspector parametrics) and left-rail panels through the same Plugin manifest the built-ins use — there is no separate internal API.

  • Developer guideCreate a plugin: the Plugin shape, panel contributions, discovery, lifecycle, and what's in/out of v1.
  • Worked examplepascalorg/plugin-trees: a standalone plugin with procedural trees, flowers, grass, and a presets panel. Clone it as a starting point.

Technology Stack

  • React 19 + Next.js 16
  • Three.js (WebGPU renderer)
  • React Three Fiber + Drei
  • Zustand (state management)
  • Zod (schema validation)
  • Zundo (undo/redo)
  • three-bvh-csg (Boolean geometry operations)
  • Turborepo (monorepo management)
  • Bun (package manager)

Getting Started

Development

Run the development server from the root directory to enable hot reload for all packages:

# Install dependencies
bun install

# Run development server (builds packages + starts editor with watch mode)
bun dev

# This will:
# 1. Build @pascal-app/core and @pascal-app/viewer
# 2. Start watching both packages for changes
# 3. Start the Next.js editor dev server
# Open http://localhost:3002

Important: Always run bun dev from the root directory to ensure the package watchers are running. This enables hot reload when you edit files in packages/core/src/ or packages/viewer/src/.

Building for Production

# Build all packages
turbo build

# Build specific package
turbo build --filter=@pascal-app/core

Publishing Packages

# Build packages
turbo build --filter=@pascal-app/core --filter=@pascal-app/viewer

# Publish to npm
npm publish --workspace=@pascal-app/core --access public
npm publish --workspace=@pascal-app/viewer --access public

Key Files

Path Description
packages/core/src/schema/ Node type definitions (Zod schemas)
packages/core/src/store/use-scene.ts Scene state store
packages/core/src/hooks/scene-registry/ 3D object registry
packages/core/src/systems/ Geometry generation systems
packages/viewer/src/components/renderers/ Node renderers
packages/viewer/src/components/viewer/ Main Viewer component
apps/editor/components/tools/ Editor tools
apps/editor/store/ Editor-specific state

Contributors

Aymeric Rabot Wassim Samad Sudhir


pascalorg/editor | Trendshift

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Клон проекта Pascal Editor
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