nx-mcp
MCP ServerFreeA Model Context Protocol server implementation for Nx
Capabilities8 decomposed
monorepo task graph introspection via mcp
Medium confidenceExposes Nx's internal task graph and project dependency metadata through the Model Context Protocol, allowing AI clients to query project structure, task definitions, and dependency relationships without direct filesystem access. Implements MCP resource handlers that serialize Nx's graph data structures into JSON-RPC responses, enabling stateless queries of monorepo topology.
Directly exposes Nx's native graph computation engine through MCP resource handlers, allowing AI clients to query live monorepo state without reimplementing graph analysis logic or parsing filesystem artifacts
More accurate than filesystem-based monorepo analysis because it uses Nx's actual dependency resolution engine rather than heuristic parsing
ai-assisted task execution with context injection
Medium confidenceImplements MCP tools that allow AI clients to trigger Nx task execution (build, test, lint, etc.) with automatic context injection about affected projects and dependencies. Wraps nx exec/run commands through MCP tool handlers that capture task output, exit codes, and logs, returning structured results to the AI client for decision-making.
Bridges Nx's task execution engine directly into MCP tool handlers, allowing AI clients to execute monorepo tasks with full context about affected projects and receive structured output for autonomous decision-making
More reliable than shell-based task execution because it uses Nx's native task runner with proper dependency ordering and caching awareness
project-scoped code context retrieval for ai analysis
Medium confidenceProvides MCP resources that return filtered, project-specific source code and configuration files to AI clients, implementing smart context windowing based on project boundaries and dependency relationships. Uses Nx's project metadata to determine file inclusion/exclusion, reducing irrelevant context sent to LLMs and improving token efficiency.
Uses Nx's project graph to intelligently scope code context retrieval, ensuring AI clients receive only semantically relevant files based on actual project dependencies rather than filesystem proximity
More efficient than RAG-based code retrieval because it leverages Nx's explicit project boundaries and dependency graph rather than relying on embedding similarity
affected projects detection and change impact analysis
Medium confidenceExposes Nx's affected project detection algorithm through MCP tools, allowing AI clients to query which projects are impacted by code changes in specific files or branches. Implements handlers that call nx affected with various filters and return structured lists of affected projects, enabling AI to make informed decisions about what to test or rebuild.
Directly integrates Nx's native affected detection algorithm (which uses git history + dependency graph) through MCP, providing AI clients with accurate change impact analysis without reimplementing complex dependency tracking
More accurate than static analysis because it combines git-based change detection with Nx's computed dependency graph rather than heuristic pattern matching
workspace configuration and plugin metadata exposure
Medium confidenceProvides MCP resources that expose Nx workspace configuration (nx.json, project.json files, plugin settings) and installed plugin metadata to AI clients. Serializes Nx's configuration objects and plugin registry into JSON-RPC responses, enabling AI to understand workspace-level settings, executor configurations, and available generators.
Exposes Nx's internal configuration objects and plugin registry directly through MCP, allowing AI clients to understand workspace conventions and available tools without parsing configuration files
More reliable than parsing nx.json manually because it uses Nx's actual configuration loading and validation logic
generator invocation and code scaffolding through ai
Medium confidenceImplements MCP tools that allow AI clients to invoke Nx generators (schematics) with specified options, enabling autonomous code scaffolding and project creation. Wraps nx generate commands through tool handlers that accept generator names and option objects, execute the generator, and return results including created/modified files.
Bridges Nx's generator system directly into MCP tool handlers, allowing AI clients to invoke workspace-specific generators with full option support and receive structured output about created/modified files
More accurate than template-based code generation because it uses the workspace's actual generators which understand project conventions and dependencies
dependency graph visualization and analysis for ai reasoning
Medium confidenceExposes Nx's computed dependency graph through MCP resources in multiple formats (adjacency lists, edge lists, visual descriptions), enabling AI clients to reason about project relationships and identify circular dependencies or architectural issues. Implements graph serialization handlers that convert Nx's internal graph data structures into formats suitable for LLM analysis.
Exposes Nx's pre-computed dependency graph in multiple formats optimized for LLM reasoning, allowing AI to analyze monorepo architecture without recalculating dependencies
More efficient than runtime graph analysis because it uses Nx's cached graph computation rather than traversing the filesystem or parsing imports
lint and code quality rule exposure for ai-assisted fixes
Medium confidenceProvides MCP resources that expose ESLint, Nx lint rules, and other code quality tool configurations to AI clients, including rule definitions, severity levels, and fix suggestions. Implements handlers that parse lint configuration files and return structured rule metadata, enabling AI to understand what violations to fix and how.
Exposes workspace lint configuration and rule metadata through MCP, allowing AI clients to understand code quality requirements without running lint tools or parsing configuration files
More efficient than running lint after generation because AI understands rules upfront and can generate compliant code on first attempt
Capabilities are decomposed by AI analysis. Each maps to specific user intents and improves with match feedback.
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nx-mcp
A Model Context Protocol server implementation for Nx
khoj
Your AI second brain. Self-hostable. Get answers from the web or your docs. Build custom agents, schedule automations, do deep research. Turn any online or local LLM into your personal, autonomous AI (gpt, claude, gemini, llama, qwen, mistral). Get started - free.
Best For
- ✓teams using Nx monorepos who want AI-assisted code analysis and refactoring
- ✓developers building LLM agents that need to reason about monorepo topology
- ✓organizations integrating AI coding assistants with existing Nx workflows
- ✓developers using AI coding assistants for autonomous code changes and validation
- ✓CI/CD teams building AI-powered code review and testing workflows
- ✓solo developers who want AI to handle build/test cycles during development
- ✓teams with large monorepos (50+ projects) who need to limit context sent to LLMs
- ✓developers using AI for code generation within specific project boundaries
Known Limitations
- ⚠requires Nx workspace to be initialized and graph to be computed before MCP server starts
- ⚠graph queries are read-only — cannot modify task definitions or project structure through MCP
- ⚠performance degrades with very large monorepos (1000+ projects) due to full graph serialization
- ⚠task execution is synchronous — long-running tasks (e.g., integration tests) may timeout depending on MCP client timeout settings
- ⚠no built-in caching of task results — each execution re-runs even if inputs haven't changed
- ⚠requires proper environment setup (dependencies installed, credentials available) in the MCP server process
Requirements
Input / Output
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A Model Context Protocol server implementation for Nx
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