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Chatmcp MCP Server Collector

MCP Server

Collect and submit MCP servers from anywhere

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Updated Dec 25, 2024

About

The Chatmcp MCP Server Collector aggregates MCP server URLs by extracting them from web pages or content, then submits them to a central directory like mcp.so. It streamlines discovery and registration of MCP servers across the internet.

Capabilities

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

Chatmcp MCP Server Collector

The Chatmcp MCP Server Collector is a specialized MCP server designed to discover, extract, and register other MCP servers scattered across the web. By acting as a centralized indexer, it solves the problem of fragmented MCP resources that developers often struggle to locate. Instead of manually searching documentation or repositories, a single query to the Collector yields a curated list of active MCP servers with their URLs and optional avatar images. This streamlines onboarding new tools into AI workflows, enabling assistants to discover capabilities on demand.

At its core, the Collector offers three intuitive tools. The first, extract-mcp-servers-from-url, scans a provided web address for MCP server manifests. The second, extract-mcp-servers-from-content, parses raw HTML or JSON content to pull out server entries. Finally, submit-mcp-server submits a discovered MCP server to a public directory such as mcp.so, optionally attaching an avatar for visual identification. These tools are intentionally minimal yet powerful: they expose the essential operations needed to build a dynamic registry without imposing heavy dependencies or complex configurations.

For developers, this means effortless integration into existing AI assistant pipelines. A Claude-based workflow can invoke the Collector to search a corporate intranet or an open-source repository, retrieve a list of MCP servers, and immediately add them to the assistant’s toolset. Because the Collector communicates over standard stdio streams, it can be embedded in any language or platform that supports IPC, making it highly portable. Moreover, the optional avatar feature improves user experience by providing a visual cue when an assistant lists available tools, aiding both developers and end‑users in navigating the ecosystem.

Real‑world scenarios include automated DevOps tool discovery, where a CI/CD pipeline queries the Collector to find new monitoring or logging MCP servers that have been published internally. In research environments, a lab can use the Collector to surface experimental MCP servers from conference proceedings or preprint sites. For open‑source projects, maintainers can quickly register their MCP server in the public directory, ensuring visibility and fostering collaboration across teams.

Unique advantages of Chatmcp’s Collector stem from its focus on discovery and registration rather than hosting. It requires only a lightweight environment variable configuration for OpenAI credentials and the target submission URL, keeping setup friction low. Its tight integration with the MCP Inspector also simplifies debugging: developers can launch an interactive inspector session that visualizes server interactions in real time. Together, these features make the Chatmcp MCP Server Collector an indispensable hub for expanding and managing AI tool ecosystems.