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dicom-mcp: MCP-Driven AI Integration & Future-Ready Workflows - MCP Implementation

dicom-mcp: MCP-Driven AI Integration & Future-Ready Workflows

dicom-mcp empowers healthcare innovators with seamless MCP-driven interaction for DICOM servers, streamlining AI model integration and future-ready workflow efficiency for PACS and beyond.

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About dicom-mcp

What is dicom-mcp: MCP-Driven AI Integration & Future-Ready Workflows?

dicom-mcp is a Model Context Protocol (MCP) server designed to bridge AI workflows with DICOM-compliant medical imaging systems. Built on pynetdicom and PyPDF2, it enables standardized integration of AI models with clinical data, ensuring interoperability across healthcare ecosystems. The tool abstracts DICOM complexity while exposing MCP endpoints for version control, metadata management, and automated workflow orchestration.

How to use dicom-mcp: MCP-Driven AI Integration & Future-Ready Workflows?

Deployment follows three core steps:
1. Configuration: Define DICOM nodes and MCP contexts via YAML
2. Query Execution: Use MCP queries to retrieve DICOM instances and metadata
3. Data Manipulation: Extract content from encapsulated PDFs or stream instances to AI pipelines
Command-line tools and Python APIs provide flexible access for both interactive exploration and production workflows.

dicom-mcp Features

Key Features of dicom-mcp: MCP-Driven AI Integration & Future-Ready Workflows?

  • MCP Compliance: Full support for versioned model contexts and metadata tracking
  • End-to-End DICOM Support: Query, retrieve, and process studies/series/instances across modalities
  • Embedded PDF Processing: Native extraction of text from DICOM encapsulated PDF objects
  • Context-Aware Workflows: Maintain model parameters and execution metadata in standardized JSON-LD format
  • Extensible Architecture: Plugin system for custom DICOM SOP classes and preprocessing pipelines

Use Cases for dicom-mcp: MCP-Driven AI Integration & Future-Ready Workflows?

Typical applications include:
• Radiology AI validation with version-tracked model configurations
• Surgical planning using DICOM-registered 3D models
• Research cohort analysis with automated metadata filtering
• Regulatory compliance reporting via auditable workflow logs

dicom-mcp FAQ

FAQ: dicom-mcp Implementation Questions

Q: Does it support DICOMweb?
A: Full C-Tweedie and WADO-RS compliance with MCP extensions

Q: How is performance scaled?
A: Multi-threaded processing and caching strategies for large datasets

Q: Can it handle non-image DICOM objects?
A: Yes, including SR documents and PDF reports via dedicated parsers

Q: What AI frameworks are supported?
A: Framework-agnostic via MCP context injection, with native ONNX and PyTorch integrations

Q: Are there security features?
A: Role-based access control, audit logging, and TLS encryption for DICOM associations

Content

dicom-mcp: A DICOM Model Context Protocol Server

Overview

A Model Context Protocol server for DICOM (Digital Imaging and Communications in Medicine) interactions. This server provides tools to query and interact with DICOM servers, enabling Large Language Models to access and analyze medical imaging metadata.

dicom-mcp allows AI assistants to query patient information, studies, series, and instances from DICOM servers using standard DICOM networking protocols. It also supports extracting text from encapsulated PDF documents stored in DICOM format, making it possible to analyze clinical reports. It's built on pynetdicom and follows the Model Context Protocol specification.

Tools

  1. list_dicom_nodes
* Lists all configured DICOM nodes and calling AE titles
* Inputs: None
* Returns: Current node, available nodes, current calling AE title, and available calling AE titles
  1. switch_dicom_node
* Switches to a different configured DICOM node
* Inputs: 
  * `node_name` (string): Name of the node to switch to
* Returns: Success message
  1. switch_calling_aet
* Switches to a different configured calling AE title
* Inputs: 
  * `aet_name` (string): Name of the calling AE title to switch to
* Returns: Success message
  1. verify_connection
* Tests connectivity to the configured DICOM node using C-ECHO
* Inputs: None
* Returns: Success or failure message with details
  1. query_patients
* Search for patients matching specified criteria
* Inputs: 
  * `name_pattern` (string, optional): Patient name pattern (can include wildcards)
  * `patient_id` (string, optional): Patient ID
  * `birth_date` (string, optional): Patient birth date (YYYYMMDD)
  * `attribute_preset` (string, optional): Preset level of detail (minimal, standard, extended)
  * `additional_attributes` (string[], optional): Additional DICOM attributes to include
  * `exclude_attributes` (string[], optional): DICOM attributes to exclude
* Returns: Array of matching patient records
  1. query_studies
* Search for studies matching specified criteria
* Inputs: 
  * `patient_id` (string, optional): Patient ID
  * `study_date` (string, optional): Study date or range (YYYYMMDD or YYYYMMDD-YYYYMMDD)
  * `modality_in_study` (string, optional): Modalities in study
  * `study_description` (string, optional): Study description (can include wildcards)
  * `accession_number` (string, optional): Accession number
  * `study_instance_uid` (string, optional): Study Instance UID
  * `attribute_preset` (string, optional): Preset level of detail
  * `additional_attributes` (string[], optional): Additional DICOM attributes to include
  * `exclude_attributes` (string[], optional): DICOM attributes to exclude
* Returns: Array of matching study records
  1. query_series
* Search for series within a study
* Inputs: 
  * `study_instance_uid` (string): Study Instance UID (required)
  * `modality` (string, optional): Modality (e.g., "CT", "MR")
  * `series_number` (string, optional): Series number
  * `series_description` (string, optional): Series description
  * `series_instance_uid` (string, optional): Series Instance UID
  * `attribute_preset` (string, optional): Preset level of detail
  * `additional_attributes` (string[], optional): Additional DICOM attributes to include
  * `exclude_attributes` (string[], optional): DICOM attributes to exclude
* Returns: Array of matching series records
  1. query_instances
* Search for instances within a series
* Inputs: 
  * `series_instance_uid` (string): Series Instance UID (required)
  * `instance_number` (string, optional): Instance number
  * `sop_instance_uid` (string, optional): SOP Instance UID
  * `attribute_preset` (string, optional): Preset level of detail
  * `additional_attributes` (string[], optional): Additional DICOM attributes to include
  * `exclude_attributes` (string[], optional): DICOM attributes to exclude
* Returns: Array of matching instance records
  1. get_attribute_presets
* Lists available attribute presets for queries
* Inputs: None
* Returns: Dictionary of available presets and their attributes by level
  1. retrieve_instance
* Retrieves a specific DICOM instance and saves it to the local filesystem
* Inputs: 
  * `study_instance_uid` (string): Study Instance UID
  * `series_instance_uid` (string): Series Instance UID
  * `sop_instance_uid` (string): SOP Instance UID
  * `output_directory` (string, optional): Directory to save the retrieved instance to (default: "./retrieved_files")
* Returns: Dictionary with information about the retrieval operation
  1. extract_pdf_text_from_dicom
* Retrieves a DICOM instance containing an encapsulated PDF and extracts its text content
* Inputs: 
  * `study_instance_uid` (string): Study Instance UID
  * `series_instance_uid` (string): Series Instance UID
  * `sop_instance_uid` (string): SOP Instance UID
* Returns: Dictionary with extracted text information and status

Installation

Prerequisites

  • Python 3.12 or higher
  • A DICOM server to connect to (e.g., Orthanc, dcm4chee, etc.)

Using pip

Install via pip:

pip install dicom-mcp

Configuration

dicom-mcp requires a YAML configuration file that defines the DICOM nodes and calling AE titles. Create a configuration file with the following structure:

# DICOM nodes configuration
nodes:
  orthanc:
    host: "localhost"
    port: 4242
    ae_title: "ORTHANC"
    description: "Local Orthanc DICOM server"
  
  clinical:
    host: "pacs.hospital.org"
    port: 11112
    ae_title: "CLIN_PACS"
    description: "Clinical PACS server"

# Local calling AE titles
calling_aets:
  default:
    ae_title: "MCPSCU"
    description: "Default calling AE title"
  
  modality:
    ae_title: "MODALITY"
    description: "Simulating a modality"

# Currently selected node
current_node: "orthanc"

# Currently selected calling AE title
current_calling_aet: "default"

Usage

Command Line

Run the server using the script entry point:

dicom-mcp /path/to/configuration.yaml

If using uv:

uv run dicom-mcp /path/to/configuration.yaml

Configuration with Claude Desktop

Add this to your claude_desktop_config.json:

"mcpServers": {
  "dicom": {
    "command": "uv",
    "args": ["--directory", "/path/to/dicom-mcp", "run", "dicom-mcp", "/path/to/configuration.yaml"]
  }
}

Usage with Zed

Add to your Zed settings.json:

"context_servers": [
  "dicom-mcp": {
    "command": {
      "path": "uv",
      "args": ["--directory", "/path/to/dicom-mcp", "run", "dicom-mcp", "/path/to/configuration.yaml"]
    }
  }
],

Example Queries

List available DICOM nodes

list_dicom_nodes()

Switch to a different node

switch_dicom_node(node_name="clinical")

Switch to a different calling AE title

switch_calling_aet(aet_name="modality")

Verify connection

verify_connection()

Search for patients

# Search by name pattern (using wildcard)
patients = query_patients(name_pattern="SMITH*")

# Search by patient ID
patients = query_patients(patient_id="12345678")

# Get detailed information
patients = query_patients(patient_id="12345678", attribute_preset="extended")

Search for studies

# Find all studies for a patient
studies = query_studies(patient_id="12345678")

# Find studies within a date range
studies = query_studies(study_date="20230101-20231231")

# Find studies by modality
studies = query_studies(modality_in_study="CT")

Search for series in a study

# Find all series in a study
series = query_series(study_instance_uid="1.2.840.10008.5.1.4.1.1.2.1.1")

# Find series by modality and description
series = query_series(
    study_instance_uid="1.2.840.10008.5.1.4.1.1.2.1.1",
    modality="CT",
    series_description="CHEST*"
)

Search for instances in a series

# Find all instances in a series
instances = query_instances(series_instance_uid="1.2.840.10008.5.1.4.1.1.2.1.2")

# Find a specific instance by number
instances = query_instances(
    series_instance_uid="1.2.840.10008.5.1.4.1.1.2.1.2",
    instance_number="1"
)

Retrieve a DICOM instance

# Retrieve a specific instance
result = retrieve_instance(
    study_instance_uid="1.2.840.10008.5.1.4.1.1.2.1.1",
    series_instance_uid="1.2.840.10008.5.1.4.1.1.2.1.2",
    sop_instance_uid="1.2.840.10008.5.1.4.1.1.2.1.3",
    output_directory="./dicom_files"
)

Extract text from a DICOM encapsulated PDF

# Extract text from an encapsulated PDF
result = extract_pdf_text_from_dicom(
    study_instance_uid="1.2.840.10008.5.1.4.1.1.104.1.1",
    series_instance_uid="1.2.840.10008.5.1.4.1.1.104.1.2",
    sop_instance_uid="1.2.840.10008.5.1.4.1.1.104.1.3"
)

Debugging

You can use the MCP inspector to debug the server:

npx @modelcontextprotocol/inspector uv --directory /path/to/dicom-mcp run dicom-mcp /path/to/configuration.yaml

Development

Setup Development Environment

  1. Clone the repository:

    git clone https://github.com/yourusername/dicom-mcp.git

cd dicom-mcp
  1. Create a virtual environment:

    python -m venv .venv

source .venv/bin/activate  # On Windows: .venv\Scripts\activate
  1. Install dependencies:

    pip install -e .

Running Tests

The tests require a running Orthanc server. You can start one using Docker:

cd tests
docker-compose up -d

Then run the tests:

pytest tests/test_dicom_mcp.py

To test PDF extraction functionality:

pytest tests/test_dicom_pdf.py

Project Structure

  • src/dicom_mcp/: Main package
    • __init__.py: Package initialization
    • __main__.py: Entry point
    • server.py: MCP server implementation
    • dicom_client.py: DICOM client implementation
    • attributes.py: DICOM attribute presets
    • config.py: Configuration management with Pydantic

License

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

Acknowledgments

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