analyze-codebase-workflow
À propos
Cette compétence analyse automatiquement les bases de code pour détecter les workflows, les pipelines de données et les dépendances de fichiers en utilisant le moteur `put_auto()` de putior. Elle génère un plan d'annotation cartographiant les modèles d'E/S pour plus de 30 langages, idéal pour prendre en main des projets inconnus ou initier une intégration putior. Utilisez-la pour comprendre le flux de données, auditer les pipelines ou préparer l'annotation des fichiers sources.
Installation rapide
Claude Code
Recommandénpx 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/analyze-codebase-workflowCopiez et collez cette commande dans Claude Code pour installer cette compétence
Documentation
Analyze Codebase Workflow
Survey arbitrary repository. Auto-detect data flows, file I/O, script dependencies. Produce structured annotation plan for manual refinement.
When Use
- Onboarding onto unfamiliar codebase, need to understand data flow
- Starting putior integration in project with no PUT annotations yet
- Auditing existing project's data pipeline before documentation
- Preparing annotation plan before running
annotate-source-files
Inputs
- Required: Path to repository or source directory to analyze
- Optional: Specific subdirectories to focus on (default: entire repo)
- Optional: Languages to include or exclude (default: all detected)
- Optional: Detection scope: inputs only, outputs only, or both (default: both + dependencies)
Steps
Step 1: Survey Repository Structure
Identify source files and their languages. Understand what putior can analyze.
library(putior)
# List all supported languages and their extensions
list_supported_languages()
list_supported_languages(detection_only = TRUE) # Only languages with auto-detection
# Get supported extensions
exts <- get_supported_extensions()
Use file listing to understand repo composition:
# Count files by extension in the target directory
find /path/to/repo -type f | sed 's/.*\.//' | sort | uniq -c | sort -rn | head -20
Got: List of file extensions present in repo, with counts. Map against get_supported_extensions() to know coverage.
If fail: Repo has no files matching supported extensions? Putior cannot auto-detect workflows. Consider whether language is supported but files use non-standard extensions.
Step 2: Check Language Detection Coverage
For each detected language, verify auto-detection pattern availability.
# Check which languages have auto-detection patterns (18 languages, 902 patterns)
detection_langs <- list_supported_languages(detection_only = TRUE)
cat("Languages with auto-detection:\n")
print(detection_langs)
# Get pattern counts for specific languages found in the repo
for (lang in c("r", "python", "javascript", "sql", "dockerfile", "makefile")) {
patterns <- get_detection_patterns(lang)
cat(sprintf("%s: %d input, %d output, %d dependency patterns\n",
lang,
length(patterns$input),
length(patterns$output),
length(patterns$dependency)
))
}
Got: Pattern counts printed for each language. R has 124 patterns, Python 159, JavaScript 71, etc.
If fail: Language returns no patterns? Supports manual annotations but not auto-detection. Plan to annotate those files manually.
Step 3: Run Auto-Detection
Execute put_auto() on target directory to discover workflow elements.
# Full auto-detection
workflow <- put_auto("./src/",
detect_inputs = TRUE,
detect_outputs = TRUE,
detect_dependencies = TRUE
)
# Exclude build scripts and test helpers from scanning
workflow <- put_auto("./src/",
detect_inputs = TRUE,
detect_outputs = TRUE,
detect_dependencies = TRUE,
exclude = c("build-", "test_helper")
)
# View detected workflow nodes
print(workflow)
# Check node count
cat(sprintf("Detected %d workflow nodes\n", nrow(workflow)))
For large repos, analyze subdirectories incrementally:
# Analyze specific subdirectories
etl_workflow <- put_auto("./src/etl/")
api_workflow <- put_auto("./src/api/")
Got: Data frame with columns including id, label, input, output, source_file. Each row represents detected workflow step.
If fail: Result empty? Source files may not contain recognizable I/O patterns. Try enabling debug logging: workflow <- put_auto("./src/", log_level = "DEBUG") to see which files scanned and which patterns match.
Step 4: Generate Initial Diagram
Visualize auto-detected workflow. Assess coverage and identify gaps.
# Generate diagram from auto-detected workflow
cat(put_diagram(workflow, theme = "github"))
# With source file info for traceability
cat(put_diagram(workflow, show_source_info = TRUE))
# Save to file for review
writeLines(put_diagram(workflow, theme = "github"), "workflow-auto.md")
Got: Mermaid flowchart showing detected nodes connected by data flow edges. Nodes labeled with meaningful function/file names.
If fail: Diagram shows disconnected nodes? Auto-detection found I/O patterns but couldn't infer connections. Normal — connections derived from matching output filenames to input filenames. Annotation plan (next step) addresses gaps.
Step 5: Produce Annotation Plan
Generate structured plan documenting what found and what needs manual annotation.
# Generate annotation suggestions
put_generate("./src/", style = "single")
# For multiline style (more readable for complex workflows)
put_generate("./src/", style = "multiline")
# Copy suggestions to clipboard for easy pasting
put_generate("./src/", output = "clipboard")
Document plan with coverage assessment:
## Annotation Plan
### Auto-Detected (no manual work needed)
- `src/etl/extract.R` — 3 inputs, 2 outputs detected
- `src/etl/transform.py` — 1 input, 1 output detected
### Needs Manual Annotation
- `src/api/handler.js` — Language supported but no I/O patterns matched
- `src/config/setup.sh` — Only 12 shell patterns; complex logic missed
### Not Supported
- `src/legacy/process.f90` — Fortran not in detection languages
### Recommended Connections
- extract.R output `data.csv` → transform.py input `data.csv` (auto-linked)
- transform.py output `clean.parquet` → load.R input (needs annotation)
Got: Clear plan separating auto-detected files from those needing manual annotation. Specific recommendations for each file.
If fail: put_generate() produces no output? Ensure directory path correct and contains source files in supported languages.
Checks
-
put_auto()executes without errors on target directory - Detected workflow has at least one node (unless repo has no recognizable I/O)
-
put_diagram()produces valid Mermaid code from auto-detected workflow -
put_generate()produces annotation suggestions for files with detected patterns - Annotation plan document created with coverage assessment
Pitfalls
- Scanning too broadly: Running
put_auto(".")on repo root may includenode_modules/,.git/,venv/, etc. Target specific source directories. - Expecting full coverage: Auto-detection finds file I/O and library calls, not business logic. 40-60% coverage rate typical; rest needs manual annotation.
- Ignoring dependencies:
detect_dependencies = TRUEflag catchessource(),import,require()calls that link scripts together. Disabling it loses cross-file connections. - Language mismatch: Files with non-standard extensions (e.g.,
.Rvs.r,.jsxvs.js) may not be detected. Useget_comment_prefix()to check if extension recognized. Note extensionless files likeDockerfileandMakefilesupported via exact filename matching. - Large repos: For repos with 100+ source files, analyze by module/directory to keep diagrams readable.
See Also
install-putior— prerequisite: putior must be installed firstannotate-source-files— next step: add manual annotations based on plangenerate-workflow-diagram— generate final diagram after annotation completeconfigure-putior-mcp— use MCP tools for interactive analysis sessions
Dépôt GitHub
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