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MSPaint MCP Server

MCP Server

AI‑driven automation of MSPaint via Model Context Protocol

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Updated Jun 13, 2025

About

This server exposes Paint functions—open, draw rectangle, add text—as MCP tools. An AI agent using Google Gemini calls these tools to control the legacy Windows Paint application, enabling natural‑language driven drawing tasks.

Capabilities

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

MSPaint MCP Server – AI‑Driven Desktop Automation

The MSPaint MCP Server turns a classic Windows drawing program into an AI‑accessible tool. By exposing Paint’s GUI actions as callable functions, it lets language models orchestrate graphic tasks—opening the app, drawing shapes, and inserting text—through natural‑language commands. This solves a common pain point for developers: automating legacy desktop applications that lack modern APIs or web interfaces.

At its core, the server defines a set of tools (, , ) that wrap the automation library. When a Gemini‑powered agent receives a user prompt, it can invoke these tools via the Model Context Protocol (MCP). The agent decides which tool to call, passes parameters like coordinates or text content, and receives a confirmation response. This tight loop of natural‑language reasoning and programmatic execution enables complex workflows—such as generating annotated diagrams or batch‑drawing templates—without manual intervention.

Key capabilities include:

  • Cross‑platform control: Leveraging to interact with the Windows UI, the server handles window focus, menu navigation, and control manipulation.
  • Structured tool exposure: Using , each function is defined with clear input schemas, making the tool list discoverable and type‑safe for the AI.
  • Real‑time feedback: The server returns success status and optional screenshots, allowing the agent to confirm visual changes or adjust subsequent actions.
  • Security isolation: By running within a controlled environment, the server limits external access to only the defined Paint operations.

Typical use cases span from educational demonstrations—showing how an AI can “draw” a diagram in response to a question—to production pipelines where reports need embedded charts rendered in legacy formats. Developers can embed this server into larger AI workflows, chaining it with data‑retrieval tools or image‑generation models to produce fully automated visual reports.

The integration pattern is straightforward: an MCP client connects to the server, hands a prompt to Gemini, parses its function‑call output, and forwards that call back to the server. The response feeds into the next model turn, creating a seamless loop of intent → tool call → visual result. This architecture showcases how MCP bridges the gap between language models and desktop automation, unlocking new possibilities for AI‑enhanced productivity.