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Cursor MCP Servers 0.46 Windows

MCP Server

Configuring Cursor IDE’s Model Context Protocol servers on Windows

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Updated May 20, 2025

About

This guide explains how to set up and manage MCP (Model Context Protocol) servers in Cursor IDE 0.46 on Windows, covering installation via UI or config files, common server commands, and environment variable setup for AI tool integration.

Capabilities

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

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Overview

The Cursor MCP Servers 0.46 Windows guide presents a turnkey solution for integrating the Model Context Protocol (MCP) into a native Windows workflow. MCP is designed to let large language models (LLMs) invoke external tools—such as web browsers, search engines, or version‑control utilities—directly from the assistant’s context. By configuring a set of MCP servers, developers can extend an AI assistant with real‑time browsing, code execution, file manipulation, and API calls without leaving the Cursor IDE.

This server configuration solves a common pain point for Windows users: managing multiple tool dependencies and environment variables while keeping the LLM’s prompt clean. Instead of embedding complex shell scripts or hard‑coding API keys in source files, the guide shows how to launch each MCP server as a lightweight process via . The resulting servers expose simple JSON‑over‑STDIO interfaces that the LLM can call with minimal latency. The setup also addresses Windows‑specific quirks—such as the known issue with project‑level configuration files—and offers practical workarounds like using global settings or the IDE’s graphical server manager.

Key capabilities highlighted in the README include:

  • Dynamic tool invocation: The LLM can request a web search, run Puppeteer to scrape a page, or interact with GitHub—all through declarative MCP calls.
  • Secure API key handling: Environment variables are configured per‑server, keeping secrets out of code and version control.
  • Cross‑platform consistency: While the guide targets Windows 10/11, the same MCP commands work on macOS and Linux, ensuring a unified developer experience.
  • Fine‑grained resource control: Developers can add or remove servers on demand, preventing unnecessary token consumption and keeping the assistant’s context lean.

Typical use cases include building a research assistant that can pull up recent papers via Brave Search, a coding tutor that runs code snippets in a sandboxed Puppeteer session, or a project manager that automatically pulls GitHub issue data. In each scenario, the MCP server acts as an intermediary that translates high‑level LLM intents into concrete actions, allowing developers to prototype complex workflows quickly and reliably.

Integration with AI pipelines is straightforward: the Cursor IDE exposes a “Composer” mode where the assistant’s prompt can reference MCP tools by name. When the LLM emits a tool call, Cursor streams the request to the appropriate server over STDIO, receives the JSON response, and feeds it back into the conversation. This seamless loop means developers can focus on designing prompts rather than writing glue code, accelerating iterative development and reducing operational overhead.