gitnexus-refactoring

Rename, extract, split, or move code symbols with dependency-aware impact analysis.

2|Updated May 15, 2026
One-click install
npx skills add https://github.com/lNwNl/Methodos --skill gitnexus-refactoring-lnwnl
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: gitnexus-refactoring
Source: https://github.com/lNwNl/Methodos/tree/main/.claude/skills/gitnexus/gitnexus-refactoring
Command: npx skills add https://github.com/lNwNl/Methodos --skill gitnexus-refactoring-lnwnl

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

Refactoring code often breaks hidden dependencies, call graphs, and dynamic references, making changes risky and hard to validate.

Core Features & Use Cases

  • Safe rename and restructure guidance: Renames, extracts, splits, moves, and restructures symbols with an order of operations that reduces breakage (interfaces → implementations → callers → tests).
  • Graph-driven impact analysis: Maps dependents and execution flows so you update all affected areas instead of guessing.
  • Context-aware refactoring checks: Uses incoming/outgoing reference context and validates the scope of changes before and after applying edits.
  • Risk-focused mitigation: Flags scenarios like many callers and cross-area refs, and recommends verification via change detection and affected-process testing.
  • Index freshness handling: Advises running an analysis command when the index is stale to ensure accurate results.

Quick Start

Use gitnexus-refactoring when you want to rename a symbol safely across the codebase by first previewing edits with a dry run, then applying changes, then verifying the affected scope and running the relevant tests.

Frequently Asked Questions about gitnexus-refactoring

High-intent search queries and answers about installing and using this skill.

FAQPage Schema
How do I safely rename a symbol across a large codebase without breaking call sites?

To safely rename symbols without breaking call sites, compute a dependency-aware impact graph first, preview edits via a dry run, apply changes from interfaces to implementations, then update callers and tests.

What is the best way to calculate dependency impact before extracting or moving code?

Calculating dependency impact requires graph-driven analysis that maps dependents and execution flows, ensuring you update all affected areas and validate cross-module references before extracting or moving code.

How do I verify code changes after splitting functions or updating interfaces?

Verify code changes after splitting functions by running change detection on the affected scope and executing relevant tests to confirm execution flows remain intact across all updated caller sites.

Can I preview refactoring edits before applying them to cross-module references?

Yes, you can preview refactoring edits before applying them by using a dry-run mode that detects changes and validates the scope of cross-module references without modifying the actual codebase.

Why do refactoring operations fail when the code graph index is stale?

Refactoring operations fail or produce inaccurate results when the code graph index is stale, so you must run a fresh analysis command to rebuild the index and ensure accurate dependency mapping.

When should I not use automated refactoring for dynamic references?

Avoid automated refactoring for dynamic references when risk-focused mitigation flags many callers or cross-area dependencies, requiring manual verification via change detection and affected-process testing instead.