lsp-fix-all
Acerca de
La habilidad lsp-fix-all aplica automáticamente todas las acciones de corrección rápida disponibles para los diagnósticos en un archivo, procesándolas secuencialmente mientras reúne los diagnósticos nuevamente entre correcciones para tener en cuenta los cambios en los números de línea. Está diseñada para resolver en masa errores y advertencias que el servidor de lenguaje puede corregir automáticamente, lo que la distingue de las habilidades basadas en edición. Esto requiere el servidor MCP agent-lsp con capacidad codeActionProvider.
Instalación rápida
Claude Code
Recomendadonpx skills add blackwell-systems/agent-lsp -a claude-code/plugin add https://github.com/blackwell-systems/agent-lspgit clone https://github.com/blackwell-systems/agent-lsp.git ~/.claude/skills/lsp-fix-allCopia y pega este comando en Claude Code para instalar esta habilidad
Documentación
Requires the agent-lsp MCP server.
lsp-fix-all
Apply available quick-fix code actions for all current diagnostics in a file, one at a time, re-collecting diagnostics between each fix because line numbers shift after each application.
Important distinction from /lsp-safe-edit: This skill fixes pre-existing
diagnostics in a file — errors and warnings that already exist before any edit
session begins. /lsp-safe-edit has a code-action step (Step 7) for fixing errors
introduced by a specific edit you just made. Use this skill for systematic
bulk-fixing of existing issues, independent of any edit session.
When to use / not use
Use this skill when:
- A file has accumulated errors or warnings you want to resolve automatically
- You want to clean up a file before starting new work
- You want to apply all available language-server quick-fixes in bulk
Do NOT use this skill when:
- You just made an edit and want to fix newly introduced errors — use
/lsp-safe-edit - You want to apply structural refactors — this skill applies quick-fixes only (see filtering below)
- The file has zero diagnostics (the skill will report clean and stop)
Input
- file_path: Absolute path to the file to fix.
Workflow
Step 1 — Open and collect initial diagnostics
Call mcp__lsp__open_document with the target file path to ensure it is loaded
in the language server. Then call mcp__lsp__get_diagnostics to retrieve all
current diagnostics.
If zero diagnostics are returned: report "No diagnostics found — file is clean." and stop. No further steps are needed.
Record the initial count of errors and warnings for the summary output.
Step 2 — Classify and filter code actions
For EACH diagnostic (process one at a time, not in batch):
- Call
mcp__lsp__suggest_fixesat the diagnostic's position/range. - Filter the returned actions to quick-fix kind only.
- Skip any diagnostic for which no applicable quick-fix exists — note it in the summary.
Decision gate — which code actions to apply:
| Action kind | Apply? |
|---|---|
quickfix | YES |
quickfix.* | YES |
refactor | NO — structural change |
refactor.extract | NO — structural change |
refactor.inline | NO — structural change |
source.organizeImports | YES — safe formatting |
source.* (others) | NO — skip unless organizeImports |
| (no kind / empty) | NO — unknown, skip |
A code action qualifies if: kind == "quickfix", OR kind starts with "quickfix.",
OR kind == "source.organizeImports".
Reject actions whose kind is "refactor", starts with "refactor.", or has no
kind field at all.
Step 3 — Apply one fix and re-collect (the core loop)
This is the critical correctness constraint: never apply more than one fix per
iteration. After each apply_edit call, line numbers in the file shift. Always
re-call get_diagnostics before processing the next diagnostic.
Loop:
iteration = 0
max_iterations = 50
while iteration < max_iterations:
diagnostics = mcp__lsp__get_diagnostics(file_path)
if diagnostics is empty: break
for each diagnostic in diagnostics:
actions = mcp__lsp__suggest_fixes(diagnostic.range)
applicable = filter to quickfix / source.organizeImports kinds (see Step 2)
if applicable is not empty:
apply the first applicable action via mcp__lsp__apply_edit
record: (line, message, action title) in "Fixed" list
iteration += 1
break # restart the outer loop — line numbers have shifted
if no diagnostic in this pass had an applicable quick-fix:
break # no progress possible — exit loop
Exit the loop when:
- The diagnostics list is empty, OR
- No remaining diagnostic has an applicable quick-fix action, OR
- The iteration counter reaches 50 (safety guard against edge cases where a fix introduces a new fixable diagnostic, preventing infinite loops)
If apply_edit returns an error: stop the loop immediately and report the
failure in the summary. Do not attempt further fixes.
Step 4 — Verify and format
After the loop exits:
- Call
mcp__lsp__get_diagnosticsone final time to capture the post-fix state. - For any remaining diagnostics that had no applicable quick-fix, list them in the "Skipped" section with explanation.
- Call
mcp__lsp__format_documentto clean up any indentation drift introduced by the applied edits.
Output format
## lsp-fix-all Summary
File: /path/to/file.go
Initial diagnostics: N errors, M warnings
Fixes applied: K
Remaining (no auto-fix available): J
### Fixed
- line X: <message> → applied: <action title>
### Skipped (no quick-fix available)
- line Y: <message>
If apply_edit failed mid-loop, append:
### Loop stopped
- apply_edit returned error on line Z: <error message>
- Fixes applied before failure: K
Safety rules
- Never apply more than one code action per loop iteration
- Always re-collect diagnostics after each
apply_editbefore the next fix - Never apply refactor or structural code actions — quick-fix and source.organizeImports only
- If
apply_editreturns an error, stop the loop and report the failure; do not continue - Maximum iterations: 50 (safety guard against infinite loops in edge cases where a fix introduces a new fixable diagnostic)
- Do not use
execute_command—apply_editis sufficient for all quick-fixes
Prerequisites
LSP must be running for the target workspace. If not yet initialized, call
mcp__lsp__start_lsp with the workspace root before proceeding.
Auto-init note: agent-lsp supports workspace auto-inference from file paths.
Explicit start_lsp is only needed when switching workspace roots.
Repositorio GitHub
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