claude-swarm
Orchestrates parallel Claude Code worker swarms with protocol-based behavioral governance for multi-hour autonomous coding sessions.
README
<p align="center"> <img src="assets/banner.png" alt="Claude Swarm - Parallel AI Workers" width="100%"> </p>
<p align="center"> <strong>An MCP server for orchestrating parallel Claude Code worker swarms with protocol-based behavioral governance.</strong><br> Enables multi-hour autonomous coding sessions with persistent state, parallel workers, and runtime enforcement of behavioral constraints. </p>
<p align="center"> <a href="#installation">Installation</a> • <a href="#quick-start">Quick Start</a> • <a href="#web-dashboard">Dashboard</a> • <a href="#protocol-system">Protocols</a> • <a href="#mcp-tools-reference">Tools</a> </p>
Features
Worker Orchestration
- Persistent State - Session state survives context compaction via MCP server
- Parallel Workers - Run multiple Claude Code workers simultaneously via tmux
- Git Worktree Isolation - Workers run in isolated git worktrees for safe parallel modification
- Worker Plan Mode - Workers analyze codebases and produce plans before implementing (auto-approved)
- Competitive Planning - Complex features get two competing implementation plans
- Confidence Monitoring - Multi-signal scoring detects struggling workers
- Enforced Verification - Test-as-supervisor pattern with configurable verification commands
- Auto-retry - Failed features automatically retry with configurable limits
- Feature Dependencies - Define execution order between features
- File-Based Task Locking - Atomic mutual exclusion prevents workers from conflicting
- Post-Completion Reviews - Automated code and architecture reviews with actionable findings
Long-Running Autonomy
- Ralph Loop - Fresh Claude context per iteration eliminates context rot for long sessions
- Days-Long Sessions - Supports hours/days of autonomous execution with checkpointing
- Crash Recovery - Automatic session resumption after crashes or machine restarts
- Failure Pattern Learning - Records what works/fails for future worker prompts
Protocol-Based Governance
- Behavioral Protocols - Define constraints on what workers can/cannot do
- Pre-spawn Validation - Verify protocols allow task before worker starts
- Continuous Monitoring - Track constraint violations during execution
- LLM-Generated Protocols - Workers can propose new protocols (validated against base constraints)
- Cross-instance Sync - Share protocols across MCP instances
Monitoring & Dashboard
- Real-time Web Dashboard - Live UI at
http://localhost:3456with Server-Sent Events - Live Terminal Streaming - Watch worker output with ANSI color support
- Review Worker Visibility - Code and architecture review progress in dashboard
- Violation Tracking - Audit log of all protocol violations
- Git Checkpoints - Commit progress after each feature
Repository Setup
- Auto-Configuration - Set up CI/CD, issue templates, and documentation in parallel
- Platform Detection - GitHub, GitLab, Gitea, Bitbucket, Azure DevOps support
- Project Analysis - Detects languages, frameworks, and adapts configuration
- Merge Mode - Preserves existing configs by default, with optional force overwrite
How It Works
The orchestrator pattern separates concerns for reliable long-running sessions:
- Orchestrator (Claude Code): Plans work, monitors progress, makes decisions
- MCP Server: Maintains persistent state that survives context compaction
- Workers: Isolated Claude Code sessions in git worktrees via tmux that implement individual features
- Protocols: Behavioral constraints governing what workers can/cannot do
- Ralph Loop: External bash loop that launches fresh Claude sessions per iteration, with state persisted to the filesystem (progress files, git history)
Worker Lifecycle
Workers follow a two-phase lifecycle when plan mode is enabled (complexity >= 30):
- Plan Phase - Worker runs with read-only tools (Read, Glob, Grep, Write), analyzes the codebase, and produces a structured plan
- Auto-Review - Orchestrator scores the plan on test strategy, risk assessment, file specificity, and step count
- Implement Phase - Worker runs with full tools, following the approved plan step by step
Ralph Loop (Long-Running Autonomy)
For long-running features, the Ralph Loop replaces single long-lived sessions:
- Each iteration launches a fresh Claude session (no context rot)
- State persists via filesystem: progress.md, git history, .done files
- Prompt re-reads current state each iteration (self-reloading context)
- Configurable stopping conditions: completion marker, time limit, max iterations
- Git diff injected into prompt so worker sees what changed
Session Resilience
Sessions survive crashes and machine restarts:
- Checkpointing - State snapshots every ~15 minutes while workers are running
- Heartbeat Detection - PID-based liveness detection identifies stale sessions
- Crash Recovery -
resume_sessiondetects crashes, loads checkpoints, restarts dead workers - Graceful Shutdown -
shutdown_sessioncreates checkpoint and stops workers cleanly
This separation enables:
- Parallel execution: Multiple workers implement features simultaneously
- State persistence: Session state survives context compaction via the MCP server
- Failure recovery: Workers can retry, rollback, or be guided when stuck
- Behavioral governance: Protocols enforce constraints on worker actions
Quick Start
Prerequisites
- Node.js 18+
- tmux (
brew install tmuxon macOS) - Claude Code CLI
Installation
One-liner install (recommended):
curl -fsSL https://raw.githubusercontent.com/cj-vana/claude-swarm/main/install.sh | bash
This will clone the repo, build, register the MCP server, and install the /swarm skill.
<details> <summary><strong>Manual installation</strong></summary>
git clone https://github.com/cj-vana/claude-swarm.git
cd claude-swarm
npm install
npm run build
# Add to Claude Code
claude mcp add claude-swarm --scope user -- node $(pwd)/dist/index.js
# Install the skill (optional but recommended)
mkdir -p ~/.claude/skills/swarm && cp skill/SKILL.md ~/.claude/skills/swarm/
</details>
Basic Usage
Tell Claude to use the swarm:
Use /swarm to build a REST API with authentication, user management, and tests
Or follow the workflow phases manually:
Phase 1: Setup
→ orchestrator_init - Initialize session with features
→ configure_verification - Set up test/build commands
→ set_dependencies - Define feature order
Phase 2: Pre-Work (per feature)
→ get_feature_complexity - Check if competitive planning needed
→ enrich_feature - Add relevant context
Phase 3: Execute
→ start_worker or start_parallel_workers
Phase 4: Monitor
→ sleep 180 - Wait before checking
→ check_worker (heartbeat: true) - Lightweight status
→ send_worker_message - Guide if stuck
Phase 5: Complete
→ run_verification - Run tests
→ mark_complete - Record success/failure
→ commit_progress - Git checkpoint
Phase 6: Review
→ check_reviews - Monitor automated reviews
→ get_review_results - See findings
The /swarm Skill
The /swarm skill provides guided orchestration with a complete workflow:
Use /swarm to build a REST API with authentication, user management, and tests
The skill automates:
- Phase 0: Repository readiness check (runs
setup_analyze) - Phase 1: Session setup with feature decomposition
- Phase 2: Pre-work preparation (complexity analysis, context enrichment)
- Phase 3: Execution (manual or auto-orchestration)
- Phase 4: Monitoring loop with confidence tracking
- Phase 5: Completion verification and git checkpoints
- Phase 6: Post-completion reviews
Installing the skill:
mkdir -p ~/.claude/skills/swarm && cp skill/SKILL.md ~/.claude/skills/swarm/
See skill/SKILL.md for the complete workflow reference.
Protocol System
Protocols define behavioral constraints that govern worker actions, enabling safe autonomous operation with clear boundaries.
Constraint Types
| Type | Description | Example |
|---|---|---|
tool_restriction |
Allow/deny specific tools | Only allow Read, Glob, Grep |
file_access |
Control file system access | Block access to .env files |
output_format |
Require specific output patterns | Must include test coverage report |
behavioral |
High-level behavior rules | Require confirmation before destructive actions |
temporal |
Time-based constraints | Max 30 minutes per feature |
resource |
Resource usage limits | Max 100 file operations |
side_effect |
Control external effects | No network requests, no git push |
Example Protocol
{
"id": "safe-refactoring-v1",
"name": "Safe Refactoring Protocol",
"version": "1.0.0",
"priority": 100,
"constraints": [
{
"id": "no-secrets",
"type": "file_access",
"rule": {
"type": "file_access",
"deniedPaths": ["**/.env", "**/secrets.*", "**/credentials.json"]
},
"severity": "error",
"message": "Cannot access files that may contain secrets"
}
],
"enforcement": {
"mode": "strict",
"preExecution": true,
"postExecution": true,
"onViolation": "block"
}
}
Protocol Workflow
1. protocol_register - Register a new protocol
2. protocol_activate - Activate for enforcement
3. start_worker - Workers are validated against active protocols
4. [worker runs with continuous monitoring]
5. get_violations - Review any constraint violations
LLM-Generated Protocols
Workers can propose new protocols validated against immutable base constraints:
1. get_base_constraints - View immutable security rules
2. propose_protocol - Worker submits proposal
3. review_proposals - See pending proposals with risk scores
4. approve_protocol / reject_protocol - Human review for high-risk
Base Constraints (cannot be overridden):
- Certain tools always denied (e.g., dangerous system commands)
- Critical paths always protected (e.g.,
/etc, system files) - Maximum privilege ceiling enforced
Competitive Planning
For complex features, spawn two planners with different approaches:
1. get_feature_complexity(featureId) # Analyze complexity (0-100)
2. start_competitive_planning(featureId) # Spawn Planner A & B
3. [wait for planners to complete]
4. evaluate_plans(featureId) # Compare and pick winner
5. start_worker(featureId) # Implement with winning plan
- Planner A: Incremental, safe approach
- Planner B: Elegant, innovative approach
- Threshold: Features scoring 60+ trigger competitive planning
Confidence Monitoring
Real-time confidence scoring detects struggling workers:
| Signal | Weight | Measures |
|---|---|---|
| Tool Activity | 35% | Read->Edit->Test cycles, stuck loops |
| Self-Reported | 35% | Worker writes to .confidence file |
| Output Analysis | 30% | Error patterns, frustration language |
Levels: High (80-100), Medium (50-79), Low (25-49), Critical (0-24)
set_confidence_threshold(35) # Configure alert level
get_worker_confidence(featureId) # Get detailed breakdown
Auto-Orchestration
For fully autonomous execution, use auto_orchestrate:
auto_orchestrate(projectDir, strategy: "adaptive", maxConcurrent: 5)
This handles Phases 3-5 automatically:
- Schedules workers based on dependencies
- Monitors progress and handles failures
- Runs verification commands
- Marks features complete
- Commits progress at checkpoints
Scheduling Strategies
| Strategy | Behavior |
|---|---|
breadth-first |
Maximize parallel execution of independent features |
depth-first |
Focus on unblocking dependent feature chains |
adaptive |
System decides based on dependency graph (default) |
When to Use
- Auto-orchestration: Large feature sets, hands-off execution
- Manual orchestration: Fine-grained control, complex dependencies, debugging
Post-Completion Reviews
Automated code and architecture reviews run after all workers complete:
1. All features complete -> session status changes to "reviewing"
2. Code review worker analyzes: bugs, security, style, test coverage
3. Architecture review worker analyzes: coupling, patterns, scalability
4. Findings aggregated into progress log
5. Session completes with review summary
Review workers output structured JSON findings:
.claude/orchestrator/workers/code-review.findings.json.claude/orchestrator/workers/architecture-review.findings.json
Severity levels: clean, minor, moderate, major, critical
Acting on Review Findings
Convert review findings into actionable features:
# View available issues from reviews
implement_review_suggestions(projectDir)
# Create features from specific issues
implement_review_suggestions(projectDir, issueIndices: [0, 2, 5])
# Auto-select warnings and errors
implement_review_suggestions(projectDir, autoSelect: true, minSeverity: "warning")
Configure or trigger manually:
configure_reviews(enabled: true, skipOnFailure: false)
run_review(reviewTypes: ["code", "architecture"])
get_review_results(format: "detailed")
Repository Setup
Automatically configure repositories with development best practices:
# Analyze repository freshness and missing configs
setup_analyze(projectDir)
# Initialize setup with parallel workers
setup_init(projectDir)
# Check setup progress
setup_status(projectDir)
Configuration Types
| Type | Description | Files Created |
|---|---|---|
| CLAUDE.md | Project guidance for Claude Code | CLAUDE.md |
| GitHub CI | Build, test, lint workflows | .github/workflows/ci.yml |
| Dependabot | Automated dependency updates | .github/dependabot.yml |
| Release Please | Automated version bumps and changelogs | .github/workflows/release-please.yml |
| Issue Templates | Structured bug/feature reporting | .github/ISSUE_TEMPLATE/*.yml |
| PR Template | Consistent pull request descriptions | .github/PULL_REQUEST_TEMPLATE.md |
| CONTRIBUTING.md | Contribution guidelines | CONTRIBUTING.md |
| SECURITY.md | Security policy and vulnerability reporting | SECURITY.md |
Customization
# Skip specific config types
setup_init(projectDir, skipConfigs: ["dependabot", "release-please"])
# Force overwrite existing files
setup_init(projectDir, force: true)
# Override platform detection
setup_init(projectDir, platform: "gitlab")
Feature Rollback
The orchestrator creates git snapshot branches before each worker starts, enabling safe rollback of failed features.
How Rollback Works
- Snapshot Creation:
start_workercreatesswarm/{featureId}branch at current HEAD - Worker Execution: Worker makes changes to working directory
- On Failure: Use
rollback_featureto restore pre-worker state
Rollback Tools
| Tool | Description |
|---|---|
rollback_feature |
Restore files changed by a worker |
check_rollback_conflicts |
Check for conflicts with other workers |
Usage
# Rollback all files changed by feature
rollback_feature(projectDir, featureId: "feature-1")
# Rollback specific files only
rollback_feature(projectDir, featureId: "feature-1", files: ["src/component.ts"])
Warning: When rolling back in parallel worker environments, other workers' changes to the same files will also be reverted.
Web Dashboard


A real-time web dashboard is available at http://localhost:3456:
- Session Overview - Progress bar, feature counts, session statistics
- Feature Cards - Status, dependencies, worker assignment
- Live Terminal Output - Real-time streaming with ANSI color support
- Review Worker Progress - Code and architecture review visibility
- Dark Mode - Automatic theme detection
Dashboard API
The dashboard exposes a REST API for programmatic access:
| Endpoint | Method | Description |
|---|---|---|
/api/status |
GET | Session overview with elapsed time and progress summary |
/api/features |
GET | Feature list with details (supports ?status= filter) |
/api/workers |
GET | All worker statuses with summary counts |
/api/workers/:featureId/output |
GET (SSE) | Stream worker terminal output in real-time |
/api/review-workers |
GET | Review worker statuses and findings summary |
/api/review-workers/:type/output |
GET (SSE) | Stream review worker output |
/api/logs |
GET | Progress log entries (supports ?limit=N) |
/api/stats |
GET | Session statistics (completion times, success rates) |
/api/events |
GET (SSE) | Real-time updates for all session changes |
/health |
GET | Health check endpoint |
Server-Sent Events (/api/events):
status- Session status changesfeature- Feature status updatesworker- Active worker count changesreviewWorker- Review worker status updateslog- New progress log entriesheartbeat- Keep-alive (every 15s)
Architecture

Claude Code orchestrates workers through the MCP Server. Workers run in isolated tmux sessions and share access to the project codebase. The dashboard provides real-time monitoring via SSE.
MCP Tools Reference
Core Orchestration (3 tools)
| Tool | Description |
|---|---|
orchestrator_init |
Start session with task and features |
orchestrator_status |
Get current state (use after compaction) |
orchestrator_reset |
Clear state and kill all workers |
Worker Management (9 tools)
| Tool | Description |
|---|---|
start_worker |
Launch worker for a feature |
start_parallel_workers |
Launch multiple workers simultaneously |
start_ralph_loop |
Launch worker with Ralph Loop (fresh context per iteration) |
validate_workers |
Pre-flight validation before parallel execution |
check_worker |
Get worker output (supports heartbeat mode) |
check_all_workers |
Check all active workers at once |
send_worker_message |
Send instructions to running worker |
configure_plan_mode |
Enable/configure worker plan-before-implement mode |
configure_ralph_loop |
Enable/configure Ralph Loop execution defaults |
Competitive Planning (3 tools)
| Tool | Description |
|---|---|
get_feature_complexity |
Analyze complexity score |
start_competitive_planning |
Spawn 2 planners with different approaches |
evaluate_plans |
Compare plans and select winner |
Confidence Monitoring (2 tools)
| Tool | Description |
|---|---|
get_worker_confidence |
Get detailed confidence breakdown |
set_confidence_threshold |
Configure alert threshold |
Feature Management (6 tools)
| Tool | Description |
|---|---|
mark_complete |
Mark feature done/failed (auto-retry) |
retry_feature |
Reset failed feature for retry |
run_verification |
Run tests/build commands |
add_feature |
Add discovered work |
set_dependencies |
Define feature dependencies |
configure_verification |
Set pre-completion verification commands |
Pre-Completion Verification
Configure commands that workers must run before marking features complete:
configure_verification(projectDir, commands: ["npm test", "npx tsc --noEmit"])
Workers will run these commands and fix any errors before completion. Allowed commands include:
npm test,npm run test,yarn test,pnpm testnpx tsc --noEmit,npx vitest,npx jestpytest,python -m pytestcargo test,cargo checkgo test,make test
Session & Progress (7 tools)
| Tool | Description |
|---|---|
get_progress_log |
View history (paginated) |
get_session_stats |
Success rates and timing |
pause_session |
Pause and stop all workers |
resume_session |
Resume paused session (supports crash recovery) |
shutdown_session |
Graceful shutdown with checkpoint |
commit_progress |
Create git checkpoint |
auto_orchestrate |
Hands-free orchestration until completion |
Feature Rollback (2 tools)
| Tool | Description |
|---|---|
rollback_feature |
Restore files changed by a worker |
check_rollback_conflicts |
Check for conflicts with other workers |
Post-Completion Reviews (5 tools)
| Tool | Description |
|---|---|
run_review |
Manually trigger code/architecture reviews |
check_reviews |
Monitor review worker status |
get_review_results |
Get aggregated findings (summary/detailed/json) |
configure_reviews |
Set auto-review preferences |
implement_review_suggestions |
Convert review findings into features |
Repository Setup (3 tools)
| Tool | Description |
|---|---|
setup_analyze |
Analyze repo freshness and missing configs |
setup_init |
Initialize repo configuration with parallel workers |
setup_status |
Check setup progress |
Protocol Management (5 tools)
| Tool | Description |
|---|---|
protocol_register |
Register a new protocol |
protocol_activate |
Activate protocol for enforcement |
protocol_deactivate |
Deactivate protocol |
protocol_list |
List all registered protocols |
protocol_status |
Get protocol details and violations |
Protocol Enforcement (4 tools)
| Tool | Description |
|---|---|
validate_feature_protocols |
Check if feature can run under active protocols |
get_violations |
Get recorded violations (paginated) |
resolve_violation |
Mark violation as resolved |
get_audit_log |
Get protocol audit history |
LLM Protocol Generation (5 tools)
| Tool | Description |
|---|---|
get_base_constraints |
View immutable base constraints |
propose_protocol |
Submit a protocol proposal |
review_proposals |
List pending proposals with risk scores |
approve_protocol |
Approve a protocol proposal |
reject_protocol |
Reject a protocol proposal |
Protocol Networking (4 tools)
| Tool | Description |
|---|---|
export_protocols |
Export protocols to shareable bundle |
import_protocols |
Import protocols from bundle |
sync_protocols |
Sync with peer instances |
discover_protocols |
Discover peer MCP instances |
Context Management (4 tools)
| Tool | Description |
|---|---|
enrich_feature |
Auto-enrich feature with relevant docs and code |
set_feature_context |
Manually set feature context |
get_feature_graph |
View feature dependency graph with context |
route_feature |
Configure worker routing preferences |
Files Created
your-project/
├── .claude/orchestrator/
│ ├── state.json # Session state
│ ├── feature_list.json # Feature status
│ ├── protocols/
│ │ ├── registry.json # Protocol definitions
│ │ ├── active.json # Active protocols
│ │ ├── violations.json # Violation records
│ │ ├── audit.json # Audit log
│ │ └── proposals/ # Pending proposals
│ ├── sync/ # Cross-instance sync
│ ├── checkpoints/ # Session checkpoints for crash recovery
│ │ └── *.json # Timestamped state snapshots
│ ├── heartbeat.json # Orchestrator liveness detection
│ ├── learnings.json # Failure pattern learning
│ ├── locks/ # File-based mutual exclusion
│ │ └── *.lock # Per-file lock files
│ ├── worktrees/ # Git worktree directories
│ └── workers/
│ ├── *.prompt # Worker prompts
│ ├── *.log # Worker output logs
│ ├── *.done # Completion markers
│ ├── *.status # Worker status
│ ├── *.plan.json # Competitive plans
│ ├── *.confidence # Self-reported confidence
│ ├── *.worker-plan.json # Worker plan-phase output
│ ├── *.plan-done # Plan phase completion markers
│ ├── *.progress.md # Ralph Loop progress files
│ ├── code-review.findings.json # Code review results
│ └── architecture-review.findings.json # Architecture review results
├── claude-progress.txt # Human-readable log
└── init.sh # Environment setup
Configuration
| Variable | Default | Description |
|---|---|---|
DASHBOARD_PORT |
3456 |
Dashboard HTTP port |
ENABLE_DASHBOARD |
true |
Set to false to disable |
Security
Input Validation
- Path traversal protection - All file paths validated against project directory
- Cryptographically secure IDs - Uses
crypto.randomUUID() - Symlink escape prevention - Real paths validated before file operations
- Input validation - All inputs validated with Zod schemas
Regex Safety (ReDoS Protection)
- Pattern validation -
isDangerousRegexPattern()detects catastrophic backtracking - Safe regex testing -
safeRegexTest()falls back to literal matching for dangerous patterns - Glob-to-regex conversion - Proper metacharacter escaping prevents injection
Memory Safety
- Bounded collections - Operation counts, alerts, and observed patterns have maximum limits
- LRU eviction - Least-recently-used entries removed when limits reached (max 50 cached managers)
- Timestamp truncation - Historical data pruned to prevent unbounded growth
Network Safety
- Localhost-only CORS - Dashboard only accepts requests from localhost origins
- No external network access - Workers operate in isolated tmux sessions
Execution Safety
- Fail-closed enforcement - Unknown constraint types block by default
- Command allowlist - Only safe verification commands allowed
- No shell injection - Uses
execFilewith arguments, prompts via files - Circuit breaker pattern - Monitor auto-stops after repeated failures
- Review worker isolation - Read-only tools (no Bash access)
Protocol Security
- Base constraints - Immutable security rules cannot be overridden
- Proposal validation - LLM-generated protocols checked against security boundaries
- Token-based matching - Tool prohibition uses exact token matching, not substring
Inspiration
- Anthropic's "Effective harnesses for long-running agents"
- Ralph Loop: A Continuous Iteration Paradigm for AI Agents
- Claude Code Agent Teams
- MAKER: "Solving a Million-Step LLM Task with Zero Errors"
- Multi-Agent Collaboration via Evolving Orchestration
- AFlow: Automatic Workflow Optimization
- AgentsNet: Coordinating Multi-Agent Networks
Troubleshooting
"No active session"
Run orchestrator_status to check state, or orchestrator_init to start fresh.
Worker seems stuck
check_worker(featureId)to see current outputget_worker_confidence(featureId)to check confidence scoresend_worker_message(featureId, "guidance")to provide direction- If truly stuck,
mark_complete(featureId, success: false)triggers auto-retry
Lost context after compaction
Call orchestrator_status(projectDir) - the MCP server maintains all state externally.
Feature has unmet dependencies
- Check dependencies with
orchestrator_status - Complete dependency features first
- Or use
set_dependenciesto modify the chain
Protocol violations blocking work
get_violations()to see what was violatedresolve_violation(violationId, resolution)if false positive- Adjust protocol constraints if too restrictive
Debugging tmux sessions
# List all worker sessions
tmux list-sessions | grep cc-worker
# Attach to a worker session
tmux attach -t cc-worker-feature-1-abc123
# Capture recent output
tmux capture-pane -t <session-name> -p -S -100
Session crashed, how to recover
Use resume_session(projectDir) - it automatically detects crashes via stale heartbeat, loads the latest checkpoint, and restarts dead workers. Set restartDeadWorkers: true (default) to auto-restart Ralph Loop workers that were running.
Worker keeps failing verification
Check the Ralph Loop progress file (.claude/orchestrator/workers/{featureId}.progress.md) for error patterns across iterations. The progress file records issues encountered in each iteration, helping identify systematic problems.
Plan mode is too slow
Lower the complexity threshold (default: 30) via configure_plan_mode(projectDir, { complexityThreshold: 50 }) so only higher-complexity features trigger planning. Or disable per-feature by setting planMode: false on the feature.
Monitor stops unexpectedly
The monitor auto-stops after 5 consecutive errors (circuit breaker). Check MCP server logs and restart if needed.
Limitations
- Requires tmux (WSL on Windows)
- Workers use your Claude Code subscription
- Protocol enforcement is observational (monitors but doesn't intercept tool calls)
- Complex feature detection is heuristic-based
Contributing
Contributions welcome! See CONTRIBUTING.md for guidelines.
License
MIT
Recommended Servers
playwright-mcp
A Model Context Protocol server that enables LLMs to interact with web pages through structured accessibility snapshots without requiring vision models or screenshots.
Magic Component Platform (MCP)
An AI-powered tool that generates modern UI components from natural language descriptions, integrating with popular IDEs to streamline UI development workflow.
Audiense Insights MCP Server
Enables interaction with Audiense Insights accounts via the Model Context Protocol, facilitating the extraction and analysis of marketing insights and audience data including demographics, behavior, and influencer engagement.
VeyraX MCP
Single MCP tool to connect all your favorite tools: Gmail, Calendar and 40 more.
graphlit-mcp-server
The Model Context Protocol (MCP) Server enables integration between MCP clients and the Graphlit service. Ingest anything from Slack to Gmail to podcast feeds, in addition to web crawling, into a Graphlit project - and then retrieve relevant contents from the MCP client.
Kagi MCP Server
An MCP server that integrates Kagi search capabilities with Claude AI, enabling Claude to perform real-time web searches when answering questions that require up-to-date information.
E2B
Using MCP to run code via e2b.
Neon Database
MCP server for interacting with Neon Management API and databases
Exa Search
A Model Context Protocol (MCP) server lets AI assistants like Claude use the Exa AI Search API for web searches. This setup allows AI models to get real-time web information in a safe and controlled way.
Qdrant Server
This repository is an example of how to create a MCP server for Qdrant, a vector search engine.