generate-workflow-diagram
정보
이 Claude Skill은 주석 처리된 워크플로 데이터에서 Mermaid 플로우차트 다이어그램을 생성합니다. 콘솔, 파일 또는 문서용으로 여러 테마(색맹 안전 옵션 포함)와 출력 형식을 제공합니다. 변경 후 또는 다양한 발표 요구에 맞춰 시각적 워크플로 문서를 생성하거나 업데이트할 때 사용하세요.
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Claude Code
추천npx skills add pjt222/agent-almanac -a claude-code/plugin add https://github.com/pjt222/agent-almanacgit clone https://github.com/pjt222/agent-almanac.git ~/.claude/skills/generate-workflow-diagramClaude Code에서 이 명령을 복사하여 붙여넣어 스킬을 설치하세요
문서
Generate Workflow Diagram
Generate a themed Mermaid flowchart diagram from putior workflow data and embed it in documentation.
When to Use
- After annotating source files and ready to produce the visual diagram
- Regenerating a diagram after workflow changes
- Switching themes or output formats for different audiences
- Embedding workflow diagrams in README, Quarto, or R Markdown documents
Inputs
- Required: Workflow data from
put(),put_auto(), orput_merge() - Optional: Theme name (default:
"light"; options: light, dark, auto, minimal, github, viridis, magma, plasma, cividis) - Optional: Output target: console, file path, clipboard, or raw string
- Optional: Interactive features:
show_source_info,enable_clicks
Procedure
Step 1: Extract Workflow Data
Obtain workflow data from one of three sources.
library(putior)
# From manual annotations
workflow <- put("./src/")
# From manual annotations, excluding specific files
workflow <- put("./src/", exclude = c("build-workflow\\.R$", "test_"))
# From auto-detection only
workflow <- put_auto("./src/")
# From merged (manual + auto)
workflow <- put_merge("./src/", merge_strategy = "supplement")
The workflow data frame may include a node_type column from annotations. Node types control Mermaid shapes:
node_type | Mermaid Shape | Use Case |
|---|---|---|
"input" | Stadium ([...]) | Data sources, configuration files |
"output" | Subroutine [[...]] | Generated artifacts, reports |
"process" | Rectangle [...] | Processing steps (default) |
"decision" | Diamond {...} | Conditional logic, branching |
"start" / "end" | Stadium ([...]) | Entry/terminal nodes |
Each node_type also receives a corresponding CSS class (e.g., class nodeId input;) for theme-based styling.
Got: A data frame with at least one row, containing id, label, and optionally input, output, source_file, node_type columns.
If fail: If the data frame is empty, no annotations or patterns were found. Run analyze-codebase-workflow first, or check that annotations are syntactically valid with put("./src/", validate = TRUE).
Step 2: Select Theme and Options
Choose a theme appropriate for the target audience.
# List all available themes
get_diagram_themes()
# Standard themes
# "light" — Default, bright colors
# "dark" — For dark mode environments
# "auto" — GitHub-adaptive with solid colors
# "minimal" — Grayscale, print-friendly
# "github" — Optimized for GitHub README files
# Colorblind-safe themes (viridis family)
# "viridis" — Purple→Blue→Green→Yellow, general accessibility
# "magma" — Purple→Red→Yellow, high contrast for print
# "plasma" — Purple→Pink→Orange→Yellow, presentations
# "cividis" — Blue→Gray→Yellow, maximum accessibility (no red-green)
Additional parameters:
direction: Diagram flow direction —"TD"(top-down, default),"LR"(left-right),"RL","BT"show_artifacts:TRUE/FALSE— show artifact nodes (files, data); can be noisy for large workflows (e.g., 16+ extra nodes)show_workflow_boundaries:TRUE/FALSE— wrap each source file's nodes in a Mermaid subgraphsource_info_style: How source file info is displayed on nodes (e.g., as subtitle)node_labels: Format for node label text
Got: Theme names printed. Select one based on context.
If fail: If a theme name is not recognized, put_diagram() falls back to "light". Check spelling.
Step 3: Custom Palette with put_theme() (Optional)
If the 9 built-in themes don't match your project's palette, create a custom theme with put_theme().
# Create custom palette — unspecified types inherit from base theme
cyberpunk <- put_theme(
base = "dark",
input = c(fill = "#1a1a2e", stroke = "#00ff88", color = "#00ff88"),
process = c(fill = "#16213e", stroke = "#44ddff", color = "#44ddff"),
output = c(fill = "#0f3460", stroke = "#ff3366", color = "#ff3366"),
decision = c(fill = "#1a1a2e", stroke = "#ffaa33", color = "#ffaa33")
)
# Use the palette parameter (overrides theme when provided)
mermaid_content <- put_diagram(workflow, palette = cyberpunk, output = "raw")
writeLines(mermaid_content, "workflow.mmd")
put_theme() accepts input, process, output, decision, artifact, start, and end node types. Each takes a named vector c(fill = "#hex", stroke = "#hex", color = "#hex"). Unset types inherit from the base theme.
Got: Mermaid output with your custom classDef lines. Node shapes from node_type are preserved; only colors change. All node types use stroke-width:2px — override not currently supported via put_theme().
If fail: If the palette object is not a putior_theme class, put_diagram() raises a descriptive error. Ensure you pass the return value of put_theme(), not a raw list.
Fallback — manual classDef replacement: For fine-grained control beyond what put_theme() offers (e.g., per-type stroke widths), generate with a base theme and replace classDef lines manually:
mermaid_content <- put_diagram(workflow, theme = "dark", output = "raw")
lines <- strsplit(mermaid_content, "\n")[[1]]
lines <- lines[!grepl("^\\s*classDef ", lines)]
custom_defs <- c(" classDef input fill:#1a1a2e,stroke:#00ff88,stroke-width:3px,color:#00ff88")
mermaid_content <- paste(c(lines, custom_defs), collapse = "\n")
Step 4: Generate Mermaid Output
Produce the diagram in the desired output mode.
# Print to console (default)
cat(put_diagram(workflow, theme = "github"))
# Save to file
writeLines(put_diagram(workflow, theme = "github"), "docs/workflow.md")
# Get raw string for embedding
mermaid_code <- put_diagram(workflow, output = "raw", theme = "github")
# With source file info (shows which file each node comes from)
cat(put_diagram(workflow, theme = "github", show_source_info = TRUE))
# With clickable nodes (for VS Code, RStudio, or file:// protocol)
cat(put_diagram(workflow,
theme = "github",
enable_clicks = TRUE,
click_protocol = "vscode" # or "rstudio", "file"
))
# Full-featured
cat(put_diagram(workflow,
theme = "viridis",
show_source_info = TRUE,
enable_clicks = TRUE,
click_protocol = "vscode"
))
Got: Valid Mermaid code starting with flowchart TD (or LR depending on direction). Nodes are connected by arrows showing data flow.
If fail: If the output is flowchart TD with no nodes, the workflow data frame is empty. If connections are missing, check that output filenames match input filenames across nodes.
Step 5: Embed in Target Document
Insert the diagram into the appropriate documentation format.
GitHub README (```mermaid code fence):
## Workflow
```mermaid
flowchart TD
A["Extract Data"] --> B["Transform"]
B --> C["Load"]
```
Quarto document (native mermaid chunk via knit_child):
# Chunk 1: Generate code (visible, foldable)
workflow <- put("./src/")
mermaid_code <- put_diagram(workflow, output = "raw", theme = "github")
# Chunk 2: Output as native mermaid chunk (hidden)
#| output: asis
#| echo: false
mermaid_chunk <- paste0("```{mermaid}\n", mermaid_code, "\n```")
cat(knitr::knit_child(text = mermaid_chunk, quiet = TRUE))
R Markdown (with mermaid.js CDN or DiagrammeR):
DiagrammeR::mermaid(put_diagram(workflow, output = "raw"))
Got: Diagram renders correctly in the target format. GitHub renders mermaid code fences natively.
If fail: If GitHub doesn't render the diagram, ensure the code fence uses exactly ```mermaid (no extra attributes). For Quarto, ensure the knit_child() approach is used since direct variable interpolation in {mermaid} chunks is not supported.
Validation
-
put_diagram()produces valid Mermaid code (starts withflowchart) - All expected nodes appear in the diagram
- Data flow connections (arrows) are present between connected nodes
- Selected theme is applied (check init block in output for theme-specific colors)
- Diagram renders correctly in the target format (GitHub, Quarto, etc.)
Pitfalls
- Empty diagrams: Usually means
put()returned no rows. Check annotations exist and are syntactically valid. - All nodes disconnected: Output filenames must exactly match input filenames (including extension) for putior to draw connections.
data.csvandData.csvare different. - Theme not visible on GitHub: GitHub's mermaid renderer has limited theme support. The
"github"theme is specifically designed for GitHub rendering. The%%{init:...}%%theme block may be ignored by some renderers. - Quarto mermaid variable interpolation: Quarto's
{mermaid}chunks don't support R variables directly. Use theknit_child()technique described in Step 5. - Clickable nodes not working: Click directives require a renderer that supports Mermaid interaction events. GitHub's static renderer does not support clicks. Use a local Mermaid renderer or the putior Shiny sandbox.
- Self-referential meta-pipeline files: Scanning a directory that includes the build script generating the diagram causes duplicate subgraph IDs and Mermaid errors. Use the
excludeparameter to skip them at scan time:workflow <- put("./src/", exclude = c("build-workflow\\.R$", "build-workflow\\.js$")) show_artifacts = TRUEtoo noisy: Large projects may generate many artifact nodes (10–20+), cluttering the diagram. Useshow_artifacts = FALSEand rely onnode_typeannotations to mark key inputs/outputs explicitly.
Related Skills
annotate-source-files— prerequisite: files must be annotated before diagram generationanalyze-codebase-workflow— auto-detection can supplement manual annotationssetup-putior-ci— automate diagram regeneration in CI/CDcreate-quarto-report— embed diagrams in Quarto reportsbuild-pkgdown-site— embed diagrams in pkgdown documentation sites
GitHub 저장소
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