Text-To-GraphQL
MCP ServerFree** - MCP server for text-to-graphql, integrates with Claude Desktop and Cursor.
Capabilities13 decomposed
natural-language-to-graphql-query-translation
Medium confidenceConverts natural language descriptions into valid GraphQL queries using a LangGraph-based agent that orchestrates multi-step workflows including intent recognition, schema analysis, query construction, and validation. The agent maintains state across steps and uses OpenAI's GPT-4o model to understand user intent and map it to GraphQL operations, handling complex nested queries and field selection automatically.
Uses LangGraph state machine orchestration with explicit multi-step workflow (intent recognition → schema management → query construction → validation → execution) rather than single-pass LLM generation, enabling iterative refinement and error recovery within the agent loop
Provides tighter GraphQL schema awareness and validation than generic LLM-to-SQL approaches because it introspects the actual schema and validates queries before execution, reducing hallucination of non-existent fields
graphql-schema-introspection-and-caching
Medium confidenceFetches and parses GraphQL schema via introspection queries, extracting type definitions, fields, arguments, and relationships. The system caches schema metadata in memory during the agent session and uses it to validate query construction, providing the agent with a ground-truth representation of available operations without requiring manual schema definition.
Integrates schema introspection directly into the agent workflow as a tool step rather than as a separate initialization phase, allowing dynamic schema updates and error recovery if schema changes mid-session
More maintainable than hardcoded schema definitions because it automatically adapts to schema changes without code updates, and more reliable than regex-based schema parsing because it uses GraphQL's native introspection protocol
structured-exception-hierarchy-and-error-handling
Medium confidenceImplements a structured exception hierarchy for different error types (schema errors, query construction errors, validation errors, execution errors), enabling fine-grained error handling and recovery. Each exception type carries context information (error message, affected query, suggestions) that helps the agent or user understand what went wrong and how to fix it.
Defines custom exception types for each error category (schema, query, validation, execution) rather than using generic exceptions, enabling type-specific error recovery and detailed error context
More maintainable than generic exception handling because error types are explicit and recovery logic can be tailored to each type, improving overall system robustness
option-selection-and-disambiguation-tools
Medium confidenceProvides tools for handling ambiguous queries where multiple valid interpretations exist, presenting options to the user or agent and enabling selection of the intended interpretation. When a natural language query could map to multiple GraphQL operations or field selections, the system generates options and waits for disambiguation before proceeding.
Integrates disambiguation as an explicit agent step rather than making assumptions, enabling the agent to ask for clarification when needed and improving overall accuracy
More user-friendly than silently choosing an interpretation because it asks for clarification when ambiguous, reducing errors and improving trust
data-visualization-and-result-formatting
Medium confidenceFormats GraphQL query results for presentation to users, supporting multiple output formats (JSON, table, tree view) and handling large result sets gracefully. The system can truncate large results, highlight important fields, and provide summary statistics, making results more readable and actionable in AI assistant interfaces.
Provides multiple output formats and handles large result sets gracefully with truncation and summarization, rather than returning raw JSON which may be overwhelming in AI assistant interfaces
More user-friendly than raw JSON output because it formats results for readability and handles large datasets, improving the user experience in AI assistant contexts
intent-recognition-and-query-planning
Medium confidenceAnalyzes natural language input to identify user intent (fetch, filter, aggregate, mutate) and maps it to GraphQL operations. Uses LLM-based reasoning to decompose complex requests into query components (root type, fields, filters, sorting, pagination) and generates a query plan before constructing the actual GraphQL syntax, enabling the agent to handle ambiguous or multi-step requests.
Separates intent recognition from query construction as distinct agent steps, allowing the LLM to reason about what the user wants before committing to GraphQL syntax, enabling error recovery if the constructed query doesn't match the recognized intent
More robust than single-pass generation because it validates intent against schema before construction, reducing hallucinated queries that don't match user intent
graphql-query-construction-with-field-selection
Medium confidenceBuilds valid GraphQL query syntax from intent and schema metadata, automatically selecting appropriate fields, constructing nested selections, and handling arguments. The system uses schema-aware field selection to include only requested fields and their required sub-fields, generating syntactically valid GraphQL that matches the schema structure without manual field enumeration.
Uses schema introspection to automatically determine required fields and nested selections rather than requiring explicit field lists, reducing user input and improving query completeness
More maintainable than template-based query generation because it adapts to schema changes automatically, and more complete than user-specified field lists because it includes required sub-fields automatically
graphql-query-validation-and-error-recovery
Medium confidenceValidates constructed GraphQL queries against the schema using graphql-core validation rules before execution, catching syntax errors, type mismatches, and invalid field selections. If validation fails, the agent analyzes the error and attempts recovery by reconstructing the query with corrections, providing detailed error messages to guide the user or the agent toward valid queries.
Integrates validation as an explicit agent step with error recovery logic, allowing the agent to learn from validation failures and reconstruct queries rather than failing immediately, improving overall success rates
More robust than client-side validation alone because it uses graphql-core's full validation rule set, catching edge cases that regex or simple parsing would miss
graphql-query-execution-with-result-handling
Medium confidenceExecutes validated GraphQL queries against the target endpoint using HTTPX HTTP client, handling authentication headers, timeouts, and response parsing. The system returns structured JSON results and handles GraphQL-specific error responses (including partial results with errors), providing clear error messages when execution fails and supporting both query and mutation operations.
Handles GraphQL-specific response format (data + errors) rather than treating it as generic HTTP, allowing partial results to be returned even when errors occur, matching GraphQL semantics
More GraphQL-aware than generic HTTP clients because it understands GraphQL error responses and partial results, providing better error context to the user
mcp-protocol-server-with-tool-registration
Medium confidenceImplements a FastMCP-based Model Context Protocol server that exposes text-to-graphql capabilities as MCP tools, enabling seamless integration with MCP clients like Claude Desktop and Cursor. The server registers tools for schema management, query construction, validation, and execution, handling MCP protocol serialization and client communication automatically.
Uses FastMCP framework for declarative tool registration and MCP protocol handling, reducing boilerplate compared to manual MCP implementation and enabling automatic tool discovery by MCP clients
Simpler to deploy than REST API wrappers because MCP clients (Claude Desktop, Cursor) have native MCP support, eliminating the need for custom HTTP integration code
langgraph-agent-state-orchestration
Medium confidenceOrchestrates the multi-step text-to-graphql workflow using LangGraph state machine, maintaining agent state across steps (intent, schema, query plan, constructed query, validation result, execution result). The agent transitions between states based on step outcomes, enabling error recovery, iterative refinement, and clear visibility into the query generation process.
Uses LangGraph's explicit state machine model rather than sequential function calls, enabling clear state transitions, error recovery, and conditional branching based on step outcomes
More maintainable than sequential code because state transitions are explicit and testable, and more flexible than hardcoded workflows because new steps can be added without modifying existing logic
structured-logging-and-observability
Medium confidenceProvides structured logging using Loguru with MCP mode detection, logging all agent steps, tool invocations, schema operations, and query execution with timestamps and context. The system detects whether it's running in MCP mode and adjusts logging output accordingly, enabling debugging and observability without interfering with MCP protocol communication.
Detects MCP mode and adjusts logging output to avoid interfering with MCP protocol communication, enabling debugging without breaking the MCP client-server contract
More MCP-aware than generic logging because it understands the MCP protocol and avoids logging to stdout when it would corrupt MCP messages
pydantic-configuration-management
Medium confidenceManages system configuration using Pydantic settings, supporting environment variables, configuration files, and runtime overrides. The system validates configuration at startup and provides sensible defaults for GraphQL endpoint, API keys, logging levels, and agent parameters, enabling flexible deployment across different environments.
Uses Pydantic's declarative configuration model with environment variable support, enabling configuration without code changes and validation at startup to catch configuration errors early
More robust than manual environment variable parsing because Pydantic validates types and required fields, catching configuration errors at startup rather than at runtime
Capabilities are decomposed by AI analysis. Each maps to specific user intents and improves with match feedback.
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Best For
- ✓AI assistant integrations (Claude Desktop, Cursor) querying GraphQL APIs
- ✓developers building natural language interfaces to GraphQL backends
- ✓teams wanting to abstract GraphQL complexity from non-technical users
- ✓dynamic GraphQL APIs where schema changes frequently
- ✓teams using introspection-enabled GraphQL endpoints
- ✓scenarios where schema is the source of truth for query validation
- ✓agent workflows requiring error recovery based on error type
- ✓user-facing systems where detailed error messages improve experience
Known Limitations
- ⚠Requires valid GraphQL schema introspection endpoint to understand available types and fields
- ⚠Agent workflow adds latency per query (multiple LLM calls for intent recognition, construction, validation)
- ⚠Complex mutations with nested input types may require clarification or fail validation
- ⚠No built-in caching of schema introspection results — re-fetches on each MCP server restart
- ⚠Introspection queries add initial latency (typically 500ms-2s depending on schema size)
- ⚠Schema cache is in-memory only — not persisted across MCP server restarts
Requirements
Input / Output
UnfragileRank
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** - MCP server for text-to-graphql, integrates with Claude Desktop and Cursor.
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