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MCP Prometheus Server

MCP Server

Haskell MCP server for seamless Prometheus integration

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Updated Jun 4, 2025

About

A production‑ready Haskell implementation of the Model Context Protocol that gives Claude Desktop direct access to Prometheus metrics and queries, featuring robust error handling, thread safety, and full Prometheus API support.

Capabilities

Resources
Access data sources
Tools
Execute functions
Prompts
Pre-built templates
Sampling
AI model interactions

MCP Prometheus Server in Action

The MCP Prometheus Server is a purpose‑built bridge that lets Claude Desktop (and any MCP‑compatible AI assistant) tap directly into a Prometheus monitoring instance. By exposing the full Prometheus API through a clean, typed MCP interface, it eliminates the need for custom HTTP clients or manual token handling. Developers can ask questions about live metrics, trend analysis, or label discovery and receive instant, structured responses without leaving the AI environment.

At its core, the server offers five distinct tools: instant queries (), range queries (), series discovery (), metric enumeration (), and label listing (). Each tool translates a natural‑language prompt into the appropriate PromQL request, executes it against the configured Prometheus endpoint, and returns a JSON payload that Claude can interpret or pass back to the user. This tight coupling means developers no longer need to write separate scripts or dashboards; they can rely on the AI to surface insights, generate alerts, or even trigger remediation workflows based on metric thresholds.

Key features that make this server valuable for AI‑centric development include thread safety and strict evaluation, which guard against lazy I/O pitfalls common in Haskell, ensuring that concurrent requests from the AI do not deadlock or leak resources. Robust exception handling is built into every network and I/O operation, providing clear error messages for connectivity failures or malformed queries. The implementation follows Haskell best practices—avoiding the anti‑pattern, using specific exception types, and maintaining comprehensive unit and integration tests—so it can be confidently deployed in production environments where reliability is paramount.

Real‑world scenarios that benefit from this MCP server are plentiful. A DevOps engineer can ask, “Show me the CPU usage trend for the last 24 hours” and instantly receive a plotted range query result. A data scientist exploring system performance might request “What metrics are available for the job?” and get a list of series without digging through Prometheus’s web UI. In incident response, an AI assistant can automatically query “Is the memory usage above 80%?” and trigger a scripted alert or even spin up additional resources. Because the server exposes Prometheus’s full API, any custom query logic—aggregation, downsampling, or even label manipulation—can be invoked directly through the AI, streamlining monitoring workflows and reducing context switching.

Integrating the MCP Prometheus Server into an existing AI workflow is straightforward: configure Claude Desktop to launch the server binary with the Prometheus URL, and then reference the tools in prompts. The AI can compose complex queries by chaining tool calls, handle pagination of large metric lists, and even embed the returned data into reports or dashboards. By turning raw Prometheus telemetry into conversational insights, this server empowers developers and operators to focus on problem‑solving rather than plumbing, making it a standout component in any AI‑augmented observability stack.