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File System MCP Server

MCP Server

Cross‑platform file & directory management via API

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Updated Sep 7, 2025

About

A FastMCP server that exposes comprehensive file system operations—copy, move, delete, search, metadata, and collections—for Windows, macOS, and Linux, enabling automation and integration with other systems.

Capabilities

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

Overview

The File System MCP Server is a FastMCP‑based service that exposes a rich set of file and directory manipulation tools to AI assistants. By translating common filesystem tasks into structured API calls, it lets developers automate file handling workflows, integrate with continuous‑integration pipelines, or enable intelligent assistants to interact with the underlying operating system without writing custom code. The server’s primary value lies in providing a consistent, platform‑aware interface that abstracts away OS differences while still offering powerful Windows‑specific capabilities.

At its core, the server offers three logical domains: File Operations, Directory Operations, and System Information. File operations include copying, moving, deleting with safety checks, reading and writing contents, and gathering metadata such as size and timestamps. Directory operations cover listing, creation, deletion, recursive traversal, and pattern‑based searches. System information endpoints return OS details, CPU and memory usage, disk space metrics, and directory‑level statistics. These capabilities are exposed as MCP tools that AI clients can invoke directly, enabling dynamic file manipulation in response to user queries or scripted workflows.

Key features that distinguish this MCP server include:

  • Cross‑platform design: While Windows receives full feature support (drive enumeration, special folder access, and detailed system info), macOS and Linux still receive core file operations with plans for deeper integration.
  • Backup‑aware operations: Move and copy actions support optional backups, reducing the risk of accidental data loss during automated scripts.
  • Collection management: Users can create named collections of files, storing them in configurable directories. This is useful for grouping related assets (e.g., build artifacts) and retrieving them later through a single API call.
  • System‑level insights: The server provides real‑time metrics on CPU, memory, and disk usage, allowing AI assistants to make context‑aware decisions (e.g., delaying heavy file operations on low‑disk systems).

Typical use cases span a broad spectrum. In software delivery pipelines, an AI assistant could pull build artifacts from a collection, verify disk space before deploying, and clean up temporary directories automatically. In data science workflows, researchers might use the server to organize experiment outputs into collections, search for specific file patterns across large datasets, or monitor system health during long‑running jobs. For general automation, a user can script routine maintenance tasks—such as archiving old logs or backing up configuration files—by invoking the server’s tools through an MCP‑enabled chat interface.

Integration with AI workflows is straightforward: developers expose the server’s endpoints as MCP tools, then reference those tools in prompts or instruction sets. Because the server is built on FastMCP, it natively supports prompt templating and sampling controls, allowing developers to fine‑tune how the assistant interacts with filesystem data. The resulting synergy—AI decision making coupled with reliable, platform‑aware file manipulation—enables powerful automation scenarios that would otherwise require extensive custom scripting.