MCP ExplorerExplorer

Materials Project

17 MIT
FreeOfficial
MCP Tools
#materials#science
A MCP (Model Context Protocol) server that interacts with the Materials Project database, allowing for material search, structure visualization, and manipulation.

Overview

What is Materials Project

MCP (Model Context Protocol) is an open protocol designed to standardize the way applications provide context to Large Language Models (LLMs). It enables seamless integration between AI models and various data sources and tools, akin to how USB-C connects devices. MCP facilitates the development of agents and complex workflows, providing a growing list of pre-built integrations and security best practices for data management.

Use cases

MCP servers can be used in a variety of scientific research applications, including materials science, web data retrieval, and secure command execution on remote systems. Specific servers are tailored for tasks such as searching scientific databases, executing Python code in a controlled environment, and fetching content from online resources, demonstrating the versatility and importance of MCP in enhancing scientific discovery through AI.

How to use

To integrate MCP servers into an LLM, users can follow a step-by-step guide using a tool called MCPM, which helps manage and add servers to compatible client applications. After installing the desired server, users can validate the integration by querying the LLM to perform tasks based on the server’s capabilities, such as fetching web content, ensuring a smooth experience and efficient data interaction.

Key features

Key features of MCP include a standardized approach for connecting AI models with diverse data sources, pre-built integrations for common tasks, and flexibility in switching between LLM providers. Additionally, it emphasizes security practices to protect user data within the infrastructure while supporting a community-driven open-source ecosystem for continuous improvements.

Where to use

MCP servers are particularly useful in scientific research environments where AI models require access to specialized data and tools. They can be deployed in academic institutions, research laboratories, and companies focused on data-driven research. Applications include materials science research, programming and data analysis, and information retrieval from the web, showcasing their relevance across multiple scientific domains.

Content

MCP.science: Open Source MCP Servers for Scientific Research 🔍📚

License: MIT

Join us in accelerating scientific discovery with AI and open-source tools!

Table of Contents

About

This repository contains a collection of open source MCP servers specifically designed for scientific research applications. These servers enable Al models (like Claude) to interact with scientific data, tools, and resources through a standardized protocol.

What is MCP?

MCP is an open protocol that standardizes how applications provide context to LLMs. Think of MCP like a USB-C port for AI applications. Just as USB-C provides a standardized way to connect your devices to various peripherals and accessories, MCP provides a standardized way to connect AI models to different data sources and tools.

MCP helps you build agents and complex workflows on top of LLMs. LLMs frequently need to integrate with data and tools, and MCP provides:

  • A growing list of pre-built integrations that your LLM can directly plug into
  • The flexibility to switch between LLM providers and vendors
  • Best practices for securing your data within your infrastructure

Source: https://modelcontextprotocol.io/introduction

Available servers in this repo

Example Server

A example mcp server that help understand how mcp server works.

Materials Project

A specialized mcp server that enables Al assistants to search, visualize, and manipulate materials science data from the Materials Project database. A Materials Project API key is required.

Python Code Execution

A secure sandboxed environment that allows AI assistants to execute Python code snippets with controlled access to standard library modules, enabling data analysis and computation tasks without security risks.

SSH Exec

A specialized mcp server that enables AI assistants to securely run validated commands on remote systems via SSH, with configurable restrictions and authentication options.

Web Fetch

A versatile mcp server that allows AI assistants to fetch and process HTML, PDF, and plain text content from websites, enabling information gathering from online sources.

TXYZ Search

A specialized mcp server that enables AI assistants to perform academic and scholarly searches, general web searches, or automatically select the best search type based on the query. A TXYZ API key is required.

How to integrate MCP servers into LLM

If you’re not familiar with these stuff, here is a step-by-step guide for you: Step-by-step guide to integrate MCP servers into LLM

Prerequisites

  • MCPM: a MCP manager developed by us, which is easy to use, open source, community-driven, forever free.
  • uv: An extremely fast Python package and project manager, written in Rust. You can install it by running:
    curl -sSf https://astral.sh/uv/install.sh | bash
    
  • MCP client: e.g. Claude Desktop / Cursor / Windsurf / Chatwise / Cherry Studio

Integrate MCP servers into your client

MCP servers can be integrated with any compatible client application. Here, we’ll walk through the integration process using the web-fetch mcp server (included in this repository) as an example.

Client Integration

With MCPM, you can easily integrate MCP servers into your client application.

Before installing the server, you need to specify the client you want to add the server to.

list available clients:

mcpm client ls

specify the client you want to add the server to:

mcpm client set <client-name>

then add the server:

mcpm add web-fetch

You may need to restart your client application for the changes to take effect.

Then you can validate whether the integration installed successfully by asking LLM to fetch web content:

Find other servers

We would recommend you to check Available Servers in this repo or MCPM Registry for more servers.

How to build your own MCP server

Please check How to build your own MCP server step by step for more details.

Contributing

We enthusiastically welcome contributions to MCP.science! You can help with improving the existing servers, adding new servers, or anything that you think will make this project better.

If you are not familiar with GitHub and how to contribute to a open source repository, then it might be a bit of challenging, but it’s still easy for you. We would recommend you to read these first:

In short, you can follow these steps:

  1. Fork the repository to your own GitHub account

  2. Clone the forked repository to your local machine

  3. Create a feature branch (git checkout -b feature/amazing-feature)

  4. Make your changes and commit them (git commit -m 'Add amazing feature')

    👈 Click to see more conventions about directory and naming

    Please create your new server in the servers folder.
    For creating a new server folder under repository folder, you can simply run (replace your-new-server with your server name)

    uv init --package --no-workspace servers/your-new-server
    uv add --directory servers/your-new-server mcp
    

    This will create a new server folder with the necessary files:

    servers/your-new-server/
    ├── README.md
    ├── pyproject.toml
    └── src
        └── your_new_server
            └── __init__.py
    

    You may find there are 2 related names you might see in the config files:

    1. Project name (hyphenated): The folder, project name and script name in pyproject.toml, e.g. your-new-server.
    2. Python package name (snake_case): The folder inside src/, e.g. your_new_server.
  5. Push to the branch (git push origin feature/amazing-feature)

  6. Open a Pull Request

Please make sure your PR adheres to:

  • Clear commit messages
  • Proper documentation updates
  • Test coverage for new features

Contributor Recognition in Subrepos

If you want to recognize contributors for a specific server/subrepo (e.g. servers/gpaw-computation/), you can use the All Contributors CLI in that subdirectory.

Steps:

  1. In your subrepo (e.g. servers/gpaw-computation/), create a .all-contributorsrc file (see example).
  2. Add contributors using the CLI:
    npx all-contributors add <github-username> <contribution-type>
    
  3. Generate or update the contributors section in the subrepo’s README.md:
    npx all-contributors generate
    
  4. Commit the changes to the subrepo’s README.md and .all-contributorsrc.

For more details, see the All Contributors CLI installation guide.

License

This project is licensed under the MIT License - see the LICENSE file for details.

Acknowledgments

Thanks to all contributors!

Citation

For general use, please cite this repository as described in the root CITATION.cff.

If you use a specific server/subproject, please see the corresponding CITATION.cff file in that subproject’s folder under servers/ for the appropriate citation.

Tools

search_materials_by_formula
Search for materials in the Materials Project database by chemical formula. Returns a list of text descriptions for structures matching the given formula.
select_material_by_id
Select a specific material by its material ID. Returns a list of TextContent objects containing the structure description and URI.
get_structure_data
Retrieve structure data in specified format (CIF or POSCAR). Returns the structure file content as a string.
create_structure_from_poscar
Create a new structure from a POSCAR string. Returns information about the newly created structure, including its URI.
plot_structure
Visualize the crystal structure. Returns a PNG image of the structure and a Plotly JSON representation.
build_supercell
Create a supercell from a bulk structure. Returns information about the newly created supercell structure.
moire_homobilayer
Generate a moiré superstructure of a 2D homobilayer. Returns information about the newly created moiré structure.

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