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MCP Discovery Server

MCP Server

Automatically discover, configure, and orchestrate MCP servers on your machine

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Updated 18 days ago

About

The MCP Discovery Server scans local environments for available MCP servers, auto-configures them, and exposes a unified endpoint. It simplifies setup by handling discovery, API key management, and integration with tools like Cursor and Claude.

Capabilities

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

1 MCP Server – The “MCP of MCPs”

The 1 MCP Server solves a common pain point for developers building AI‑powered workflows: the need to manually discover, configure, and maintain a growing list of specialized MCP servers. Instead of hunting for the right tool, setting up API keys, and writing glue code, this server acts as a single entry point that automatically locates compatible MCP servers on your machine or in the cloud, configures them with any required credentials, and exposes a unified interface to your AI assistant.

By delegating the search and configuration responsibilities to a dedicated MCP server, developers can focus on higher‑level logic. The 1 MCP Server supports both remote discovery (via an HTTP endpoint) and local execution (through standard I/O), making it flexible for environments that restrict network access or prefer local runtimes. It integrates seamlessly with popular AI assistants such as Claude and Cursor by adding a single entry to the assistant’s MCP configuration file. Once connected, the assistant can query this server for any required tool—whether it’s a filesystem browser, an API wrapper, or a custom analytics component—without the assistant having to know how each tool is implemented.

Key capabilities include:

  • Automatic discovery of available MCP servers on the host, eliminating manual enumeration.
  • Dynamic configuration of server endpoints and credentials, including support for API keys via headers or command‑line arguments.
  • Dual transport modes (HTTP streaming and stdio) to accommodate different deployment constraints.
  • Hierarchical search strategies: a quick, goal‑driven lookup for known server types and a deep, step‑by‑step expansion that decomposes complex tasks into sub‑components, ensuring that the assistant can assemble a complete workflow from multiple servers.

Typical use cases span rapid prototyping of AI assistants, enterprise integration where security policies restrict direct API access, and educational settings where students can experiment with a variety of tools without juggling credentials. In practice, a developer might request “build me a data‑pipeline assistant” and the 1 MCP Server will orchestrate the discovery of an ingestion server, a transformation server, and a visualization server, handing them to the assistant in the order required.

Overall, this MCP server offers a single point of truth for tool discovery and configuration, reducing friction in AI assistant development and enabling more complex, multi‑step workflows to be assembled with minimal boilerplate.