Zurück zu Fähigkeiten

analyze-codebase-workflow

pjt222
Aktualisiert 2 days ago
5 Ansichten
17
2
17
Auf GitHub ansehen
Designwordautomationdata

Über

Diese Fähigkeit analysiert automatisch Codebasen, um Workflows, Datenpipelines und Dateiabhängigkeiten mithilfe der `put_auto()`-Engine von putior zu erkennen. Sie erstellt einen Annotationsplan, der E/A-Muster über 30+ Sprachen hinweg abbildet, ideal für das Onboarding bei unbekannten Projekten oder den Beginn einer putior-Integration. Nutzen Sie sie, um Datenflüsse zu verstehen, Pipelines zu prüfen oder Quellcodedateien für die Annotation vorzubereiten.

Schnellinstallation

Claude Code

Empfohlen
Primär
npx skills add pjt222/agent-almanac -a claude-code
Plugin-BefehlAlternativ
/plugin add https://github.com/pjt222/agent-almanac
Git CloneAlternativ
git clone https://github.com/pjt222/agent-almanac.git ~/.claude/skills/analyze-codebase-workflow

Kopieren Sie diesen Befehl und fügen Sie ihn in Claude Code ein, um diese Fähigkeit zu installieren

Dokumentation

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 include node_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 = TRUE flag catches source(), import, require() calls that link scripts together. Disabling it loses cross-file connections.
  • Language mismatch: Files with non-standard extensions (e.g., .R vs .r, .jsx vs .js) may not be detected. Use get_comment_prefix() to check if extension recognized. Note extensionless files like Dockerfile and Makefile supported 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 first
  • annotate-source-files — next step: add manual annotations based on plan
  • generate-workflow-diagram — generate final diagram after annotation complete
  • configure-putior-mcp — use MCP tools for interactive analysis sessions

GitHub Repository

pjt222/agent-almanac
Pfad: i18n/caveman/skills/analyze-codebase-workflow
0
agentsagentskillsai-assisted-developmentclaude-codeskillsteams

Verwandte Skills

executing-plans

Design

Verwenden Sie die Fähigkeit "executing-plans", wenn Sie einen vollständigen Implementierungsplan zur Ausführung in kontrollierten Batches mit Überprüfungspunkten vorliegen haben. Sie lädt den Plan und überprüft ihn kritisch, führt dann Aufgaben in kleinen Batches (standardmäßig 3 Aufgaben) aus und meldet den Fortschritt zwischen jedem Batch zur Überprüfung durch den Architekten. Dies gewährleistet eine systematische Implementierung mit integrierten Qualitätskontrollpunkten.

Skill ansehen

requesting-code-review

Design

Diese Fähigkeit sendet einen Unteragenten für Code-Review, um Codeänderungen anhand der Anforderungen zu analysieren, bevor fortgefahren wird. Sie sollte nach dem Abschließen von Aufgaben, der Implementierung größerer Funktionen oder vor dem Zusammenführen in den Hauptzweig verwendet werden. Die Überprüfung hilft dabei, Probleme frühzeitig zu erkennen, indem die aktuelle Implementierung mit dem ursprünglichen Plan verglichen wird.

Skill ansehen

connect-mcp-server

Design

Diese Fähigkeit bietet Entwicklern eine umfassende Anleitung, um MCP-Server über HTTP-, stdio- oder SSE-Transports mit Claude Code zu verbinden. Sie behandelt Installation, Konfiguration, Authentifizierung und Sicherheit für die Integration externer Dienste wie GitHub, Notion und benutzerdefinierter APIs. Nutzen Sie sie beim Einrichten von MCP-Integrationen, bei der Konfiguration externer Tools oder bei der Arbeit mit Claude's Model Context Protocol.

Skill ansehen

web-cli-teleport

Design

Diese Fähigkeit unterstützt Entwickler bei der Wahl zwischen Claude Code Web- und CLI-Schnittstellen basierend auf Aufgabenanalysen und ermöglicht nahtloses Session-Teleporting zwischen diesen Umgebungen. Sie optimiert den Workflow, indem sie den Sitzungsstatus und Kontext beim Wechsel zwischen Web, CLI oder Mobilgeräten verwaltet. Nutzen Sie sie für komplexe Projekte, die in verschiedenen Phasen unterschiedliche Werkzeuge erfordern.

Skill ansehen