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BioNext-MCP: Intelligent Bioinformatics Analysis Assistant

The simplest way to perform bioinformatics analysis through Claude Desktop - just chat in natural language, no programming required!

License: MIT Python Windows

δΈ­ζ–‡η‰ˆ | English

🎯 What is this?

BioNext-MCP allows you to perform complex bioinformatics analysis through natural language conversations with Claude Desktop, without writing any code!

Simply put:

  • πŸ—£οΈ Tell Claude what data you want to analyze in plain English

  • πŸ€– Claude automatically generates professional Python analysis scripts

  • ⚑ System automatically executes scripts and displays results

  • πŸ“Š Get beautiful HTML reports and visualization charts

Related MCP server: BioOpenMCP

✨ Key Features

🧬 Supported Analysis Types

  • Single-cell RNA sequencing (scRNA-seq) - Cell clustering, differential expression, trajectory analysis

  • Genomics - Variant analysis, annotation, functional enrichment

  • Transcriptomics - Differential expression, pathway analysis, co-expression networks

  • Proteomics - Protein identification, quantitative analysis

  • Multi-omics integration - Data fusion, correlation analysis

🎨 Smart Features

  • Automatic environment setup - Detects Python, auto-installs required packages (pandas, numpy, matplotlib, etc.)

  • UTF-8 encoding support - Perfect support for international characters

  • Visualization-first - Automatically generates charts and displays them in HTML reports

  • Quality assurance - Focuses on code completeness and analysis accuracy

  • Error handling - Smart diagnosis of issues with solution suggestions

πŸš€ Quick Start

Step 1: Install Python Environment

  1. Visit https://www.python.org/downloads/

  2. Download Python 3.9 or higher

  3. Make sure to check "Add Python to PATH" during installation

Verify Installation

Open command prompt and type:

python --version

If you see version information, installation was successful!

Step 2: Install BioNext-MCP

  1. Download Project

git clone https://github.com/your-username/BioNext-mcp.git
cd BioNext-mcp
  1. Install Dependencies

npm install
npm run build

Step 3: Configure Claude Desktop

  1. Find Configuration File

    • Windows: %APPDATA%\Claude\claude_desktop_config.json

  2. Add Configuration

{
  "mcpServers": {
    "bioinformatics-workflow": {
      "command": "node",
      "args": ["D:\\path\\to\\BioNext-mcp\\dist\\index.js"],
      "cwd": "D:\\path\\to\\BioNext-mcp",
      "env": {
        "PROJECT_PATH": "D:\\path\\to\\your\\analysis\\directory"
      }
    }
  }
}

Important:

  • Replace paths with your actual installation paths

  • Set analysis directory to where you want results saved

  1. Restart Claude Desktop

πŸ’‘ How to Use

Basic Conversation Flow

  1. Describe Your Analysis Needs

I have a single-cell RNA sequencing data file data.h5ad, and I want to perform cell clustering analysis and differential expression analysis
  1. Claude will generate analysis scripts and execute them automatically

  2. Get detailed HTML reports including:

    • Execution results and statistics

    • Generated charts and visualizations

    • Complete analysis logs

Practical Examples

πŸ§ͺ Single-cell Analysis

Please help me analyze this scRNA-seq data:
- File: C:\data\pbmc3k.h5ad
- Need: quality control, normalization, clustering, marker gene identification
- Output: UMAP plot, clustering heatmap, differential expression gene list

🧬 Gene Expression Analysis

I have RNA-seq expression matrices from two groups:
- Control group: control_samples.csv
- Treatment group: treatment_samples.csv
- Analysis: differential expression, GO enrichment, KEGG pathway analysis
- Visualization: volcano plot, heatmap, pathway diagrams

πŸ“Š Data Exploration

Help me explore this gene expression dataset:
- File: gene_expression.csv
- Need: data overview, correlation analysis, PCA analysis
- Generate: statistical summary, correlation heatmap, PCA plot

🎨 Beautiful Reports

HTML Report Features

  • πŸ“Š Visualization Gallery - Automatically detects and displays generated images

  • πŸ” Interactive Viewing - Click images to zoom and view

  • πŸ“ Detailed Logs - Complete execution process records

  • πŸ“ˆ Statistical Summary - Script execution status and performance metrics

Automatic Browser Opening

  • Reports automatically open in browser after analysis completion

  • If not auto-opened, manually open the generated HTML file

πŸ› οΈ Common Issues

Q: "Python not found" error? A: Ensure Python is installed and added to PATH environment variable

Q: Package installation fails? A: System will automatically retry, or manually run pip install package_name

Q: Script execution fails? A:

  • Check if data file paths are correct

  • Confirm data format meets requirements

  • Check error logs for detailed information

Q: No HTML report generated? A: HTML reports are only generated when all scripts execute successfully, fix execution errors first

Data Formats

Q: What data formats are supported? A:

  • CSV, TSV, Excel files

  • HDF5 format (.h5, .h5ad)

  • FASTA, FASTQ sequence files

  • VCF variant files

  • Other common bioinformatics formats

🎯 Usage Tips

1. Clear Description of Needs

βœ… Good description:
"Analyze single-cell data, perform quality control (filter low-quality cells), normalization, dimensionality reduction (PCA+UMAP), clustering (leiden algorithm), find marker genes for each cluster"

❌ Vague description:
"Analyze this data"

2. Provide Complete File Paths

βœ… Use absolute paths:
"C:\Users\username\data\sample.h5ad"

❌ Relative paths may fail:
"./data/sample.h5ad"

3. Specify Output Requirements

βœ… Clear output:
"Generate UMAP plot, heatmap, save results to CSV file"

❌ Unclear:
"Do some visualization"

4. Step-by-step Analysis

For complex analyses, break into multiple conversations:

  1. First: Data loading and quality control

  2. Second: Normalization and dimensionality reduction

  3. Third: Clustering and visualization

  4. Fourth: Differential analysis

πŸŽ‰ Start Your Bioinformatics Journey

You're ready now! Open Claude Desktop, tell it what data you want to analyze, and let AI handle the complex bioinformatics analysis for you!


πŸ“ž Get Help

  • GitHub Issues: Report problems or suggest improvements

  • Documentation: View detailed usage documentation

  • Examples: Reference example analysis cases

Remember: Describe your analysis needs in natural language, Claude will handle all the technical details for you! πŸš€

Available Tools

3 tools
analyze_bioinformatics_taskB

Analyze user intent and create a bioinformatics workflow plan. This tool helps understand your analysis goals and prepares the workflow structure. After this, ask Claude to generate Python scripts (≀100 lines each), then use execute_claude_script to run them.

Inputs: user_request (required), data_files (required), additional_context.

debug_workflowC

Analyze workflow execution results and provide debugging insights

Inputs: workflow_id (required), error_context.

execute_claude_scriptA

πŸš€ MAIN TOOL: Automatically detect and execute Python scripts generated by Claude LLM for bioinformatics tasks. Features: βœ… Auto-detects Python installation βœ… Provides detailed installation guide if Python missing βœ… Auto-installs required packages (pandas, numpy, biopython, etc.) βœ… Full execution logging and error handling βœ… Script length monitoring (recommends ≀100 lines) βœ… HTML report generation with auto-browser opening

Inputs: claude_response (required), workflow_id, execution_context.

Tool Schema Changelog

Recent tool additions, removals, and schema changes observed during successful MCP inspections.

Loading tool schema changelog…

    TDQS

    A3.6/5.0

    Scored across 3 tools

    Disambiguation5/5

    Each tool has a clearly distinct purpose: planning analysis (analyze_bioinformatics_task), executing scripts (execute_claude_script), and debugging (debug_workflow). No functional overlap.

    Naming Consistency5/5

    All tool names follow a consistent verb_noun snake_case pattern (e.g., analyze_bioinformatics_task, debug_workflow, execute_claude_script), making them predictable.

    Tool Count5/5

    With only 3 tools, the set is well-scoped for its bioinformatics workflow automation purposeβ€”each tool is essential and not excessive.

    Completeness4/5

    The tools cover planning, execution, and debuggingβ€”the core workflow. Minor gap: no explicit data retrieval or result analysis tool, but execution report generation partially addresses this.

    Maintenance

    ActivityInactive
    ResponsivenessNo recent community issues

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