Auto-claude-code-research-in-sleep figure-spec
Generate deterministic publication-quality architecture, workflow, and pipeline diagrams from structured JSON (FigureSpec) into editable SVG. Use when user says \"架构图\", \"workflow 图\", \"pipeline 图\", \"确定性矢量图\", \"figure spec\", \"draw architecture\", or needs precise, editable, publication-ready vector diagrams. Preferred over AI illustration for formal architecture/workflow figures.
git clone https://github.com/wanshuiyin/Auto-claude-code-research-in-sleep
T=$(mktemp -d) && git clone --depth=1 https://github.com/wanshuiyin/Auto-claude-code-research-in-sleep "$T" && mkdir -p ~/.claude/skills && cp -r "$T/skills/figure-spec" ~/.claude/skills/wanshuiyin-auto-claude-code-research-in-sleep-figure-spec && rm -rf "$T"
skills/figure-spec/SKILL.mdFigureSpec: Deterministic JSON → SVG Figure Generation
Generate publication-quality architecture diagrams, workflow pipelines, audit cascades, and system topology figures as editable SVG vector graphics using a deterministic JSON → SVG renderer.
When to Use This Skill
Use
for:figure-spec
- System architecture diagrams (layered, hub-and-spoke, multi-plane)
- Workflow / pipeline figures
- Audit cascade / flow-control diagrams
- Any structured diagram where node positions, connections, and groupings are semantically important
- Figures that need to be edited/tweaked later (SVG is plain text)
- Figures where determinism matters (same spec → same SVG)
Do NOT use for:
- Data plots (bar/line/scatter) — use
/paper-figure - Natural/qualitative illustrations — use
/paper-illustration - Quick state-machine / flowchart — use
(lighter syntax)/mermaid-diagram
Core Properties
- Deterministic: identical FigureSpec JSON always produces identical SVG output (for a fixed renderer version + fonts)
- Editable: SVG output is plain-text, can be post-edited by hand or programmatically
- Validated: renderer enforces schema, rejects malformed specs with clear error messages
- Shape-aware: edge clipping works correctly for rect/rounded/circle/ellipse/diamond
- CJK support: multi-line labels with proper Chinese character width estimation
- No external API: runs fully local, no network, no API keys
Tool Location
tools/figure_renderer.py (from ARIS root). Invoke via:
python3 tools/figure_renderer.py render <spec.json> --output <out.svg> python3 tools/figure_renderer.py validate <spec.json> python3 tools/figure_renderer.py schema
Workflow
Step 1: Understand the Diagram Goal
From
$ARGUMENTS (description or path to PAPER_PLAN.md / NARRATIVE_REPORT.md), identify:
- Purpose: architecture, workflow, pipeline, audit cascade, topology?
- Main entities: what are the boxes?
- Relationships: how do they connect? (uses, produces, calls, verifies, chains)
- Grouping: do entities cluster into named regions?
- Hierarchy vs network: stacked layers, left-to-right flow, or central hub?
Step 2: Draft the FigureSpec JSON
Canvas sizing guide:
- Single-column figure: ~500×350 px
- Two-column (full-width): ~900×500 px
- Tall topology: ~700×700 px
Start from a template based on the diagram type:
Architecture (stacked rows):
{ "canvas": {"width": 900, "height": 520}, "nodes": [ {"id": "layer1_label", "label": "Layer 1", "x": 450, "y": 60, ...}, {"id": "node_a", "label": "A", "x": 180, "y": 120, ...}, {"id": "node_b", "label": "B", "x": 350, "y": 120, ...} ], "edges": [...], "groups": [ {"label": "Layer 1", "node_ids": ["node_a", "node_b"], "fill": "#F0F9FF", "stroke": "#BAE6FD"} ] }
Workflow (left-to-right chain):
{ "canvas": {"width": 900, "height": 300}, "nodes": [ {"id": "step1", "label": "Step 1", "x": 100, "y": 150, "shape": "rounded"}, {"id": "step2", "label": "Step 2", "x": 280, "y": 150, "shape": "rounded"} ], "edges": [ {"from": "step1", "to": "step2", "label": "produces"} ] }
Decision diamond:
{"id": "check", "label": "Passes?", "shape": "diamond", "x": 450, "y": 200}
Step 3: Render and Validate
# Validate first python3 tools/figure_renderer.py validate /tmp/spec.json # Render to SVG python3 tools/figure_renderer.py render /tmp/spec.json --output figures/fig_arch.svg # Convert to PDF for LaTeX inclusion rsvg-convert -f pdf figures/fig_arch.svg -o figures/fig_arch.pdf
If validation fails, inspect the error (missing field, duplicate ID, overlap warning, invalid hex color) and fix the JSON.
Step 4: Visual Review
Open the SVG/PDF and check:
- No overlaps: nodes don't collide with each other or group boundaries
- Readability: font sizes are consistent, labels aren't clipped
- Edge clarity: arrows hit nodes at clean angles, labels near edges are legible
- Group alignment: background rectangles frame their members cleanly
- Color distinction: categories are visually distinct in both color and grayscale
If issues found, edit the JSON spec (never the generated SVG) and re-render.
Step 5: Iterate with Codex Review (Optional, for High-Stakes Figures)
For paper architecture figures, invoke cross-model review:
mcp__codex__codex: model: gpt-5.4 config: {"model_reasoning_effort": "xhigh"} prompt: | Review this SVG figure for a technical paper (architecture / workflow diagram). Spec file: /path/to/spec.json Rendered: /path/to/fig.svg Evaluate: 1. Clarity (C): can a reader understand the system from this figure alone? 2. Readability (R): font sizes, label placement, visual hierarchy 3. Semantic accuracy (S): do relationships match the described system? Score each axis 1-10 and list specific issues to fix.
Iterate until all three axes ≥ 7/10. The ARIS tech report figures went through 5 rounds of this loop to reach C:7/R:7/S:8.
Schema Quick Reference
Run
python3 tools/figure_renderer.py schema for the authoritative schema.
Nodes
| Field | Required | Default | Notes |
|---|---|---|---|
| ✓ | — | Unique |
| ✓ | — | for multi-line |
, | ✓ | — | Center coordinates |
, | 120, 50 | ||
| | / / / / | |
, | auto from palette | | |
| | ||
| 14 | Override style default |
Edges
| Field | Default | Notes |
|---|---|---|
, | required | Same = self-loop |
| — | Short edge label |
| | / / |
| | |
| | Curved path |
Groups
Rectangular background regions framing a set of nodes:
{"label": "Layer Name", "node_ids": ["a", "b", "c"], "fill": "#EFF6FF", "stroke": "#BFDBFE"}
Design Patterns
Pattern 1: Layered Architecture
Stack rows of related nodes, each row is a group, add inter-layer arrows with semantic labels (
uses↓, produces↑, checks↓).
Pattern 2: Hub-and-Spoke
Central node (e.g., Executor), peripheral nodes (skills, tools), solid arrows for primary relations, dashed for feedback.
Pattern 3: Pipeline with Feedback
Left-to-right main flow, feedback arrows curve below with
curve: true.
Pattern 4: Audit Cascade
Three-stage horizontal cascade with inputs feeding in from top, outputs exiting right, each stage in its own group.
Anti-Patterns
- Don't use groups as hierarchy: groups frame peer nodes, not containment
- Don't nest groups: renderer draws them as background rectangles; nested groups look like Russian dolls
- Don't cross-draw long diagonals: if an arrow crosses 3+ rows, rethink the layout
- Don't mix font sizes for same role: keep one size per node category
Output Contract
- SVG file in
(vector, editable, hand-tweakable)figures/ - Source FigureSpec JSON saved in
for reproducibilityfigures/specs/ - PDF version via
for LaTeX inclusionrsvg-convert
Integration with Other Skills
(Workflow 3): when/paper-writing
(default for architecture figures), this skill handles Phase 2billustration: figurespec
: handles data plots; they complement each other (data + architecture = complete figure set)/paper-figure
: fallback for figures that need natural/qualitative style (method illustrations with photos, qualitative result grids)/paper-illustration
: lighter alternative for simple flowcharts/mermaid-diagram
Review Tracing
After each
mcp__codex__codex or mcp__codex__codex-reply reviewer call, save the trace following shared-references/review-tracing.md. Use tools/save_trace.sh or write files directly to .aris/traces/<skill>/<date>_run<NN>/. Respect the --- trace: parameter (default: full).