--- title: MedCodeMCP emoji: 💬 colorFrom: yellow colorTo: purple sdk: gradio sdk_version: 5.32.1 app_file: app.py pinned: false license: apache-2.0 short_description: an MCP Tool for Symptom-to-ICD Diagnosis Mapping. --- A chatbot using [Gradio](https://gradio.app), [`huggingface_hub`](https://huggingface.co/docs/huggingface_hub/v0.22.2/en/index), and my local RTX 2060 instead of Cloud APIs # MedCodeMCP – an MCP Tool for Symptom-to-ICD Diagnosis Mapping ## MVP Scope - Accept a patient’s symptom description (free-text input). - Output a structured JSON with a list of probable diagnoses, each including: - ICD-10 code - Diagnosis name - Confidence score - Handle a subset of common symptoms and return the top 3–5 likely diagnoses. ## How It Works ### Input Interface - Gradio-based demo UI for testing: - Single text box for symptoms (e.g., “chest pain and shortness of breath”). - Primary interface is programmatic (MCP client calls the server). ### Processing Logic - Leverage an LLM (e.g., OpenAI GPT-4 or Anthropic Claude) to parse symptoms and suggest diagnoses. - Prompt example: > “The patient reports: {symptoms}. Provide a JSON list of up to 5 possible diagnoses, each with an ICD-10 code and a confidence score between 0 and 1. Use official ICD-10 names and codes.” - Recent experiments with medical foundation models (e.g., Google’s Med-PaLM/MedGEMMA) show they can identify relevant diagnosis codes via prompt-based reasoning ([medium.com](https://medium.com)). - Using GPT-4/Claude in the loop ensures rapid development and high-quality suggestions ([publish0x.com](https://publish0x.com)). ### Confidence Scoring - Instruct the LLM to assign a subjective probability (0–1) for each diagnosis. - Accept approximate confidences for MVP. - Alternative: rank by output order (first = highest confidence). ### ICD-10 Code Mapping - Trust LLM’s knowledge of common ICD-10 codes (e.g., chest pain → R07.9, heart attack → I21.x). - Sanity-check: - Maintain a small dictionary of common ICD-10 codes. - Use regex to verify code format. - Flag or adjust codes that don’t match known patterns. - Future improvement: integrate a full ICD-10 lookup list for validation. ### Alternate Approach - Use an open model fine-tuned for ICD coding (e.g., Clinical BERT on Hugging Face) to predict top ICD-10 codes from clinical text. - Requires more coding and possibly a GPU, but feasible. - For hackathon MVP, prioritize API-based approach with GPT/Claude ([huggingface.co](https://huggingface.co)). ### Output Format - JSON structure for easy agent parsing. Example: ```json { "diagnoses": [ { "icd_code": "I20.0", "diagnosis": "Unstable angina", "confidence": 0.85 }, { "icd_code": "J18.9", "diagnosis": "Pneumonia, unspecified organism", "confidence": 0.60 } ] } ```` * Input: “chest pain and shortness of breath” * Output: Cardiac-related issues (e.g., angina/MI) and respiratory causes, each with confidence estimates. * Structured output aligns with MCP tool requirements for downstream agent reasoning. ## Gradio MCP Integration * Implement logic in `app.py` of a Gradio Space. * Tag README with `mcp-server-track` as required by hackathon. * Follow “Building an MCP Server with Gradio” guide: * Use Gradio SDK 5.x. * Define a tool function with metadata for agent discovery. * Expose a prediction endpoint. ### Example Gradio Definition (simplified) ```python import gradio as gr import openai def symptom_to_diagnosis(symptoms: str) -> dict: prompt = f"""The patient reports: {symptoms}. Provide a JSON list of up to 5 possible diagnoses, each with an ICD-10 code and a confidence score between 0 and 1. Use official ICD-10 names and codes.""" response = openai.ChatCompletion.create( model="gpt-4", messages=[{"role": "system", "content": prompt}], temperature=0.2 ) # Parse response content as JSON return response.choices[0].message.content demo = gr.Interface( fn=symptom_to_diagnosis, inputs=gr.Textbox(placeholder="Enter symptoms here..."), outputs=gr.JSON(), title="MedCodeMCP Symptom-to-ICD Mapper", ) demo.launch() ``` * Ensure MCP metadata is included so an external agent can discover and call `symptom_to_diagnosis`. ## User Demo (Client App) * Create a separate Gradio Space or local script that: * Calls the MCP server endpoint. * Renders JSON result in a user-friendly format. * Optionally record a video demonstration: * Show an agent (e.g., Claude-2 chatbot) calling the MCP tool. * Verify end-to-end functionality. ## MVP Development Steps 1. **Set Up Gradio Space** * Initialize a new Hugging Face Space with Gradio SDK 5.x. * Tag README with `mcp-server-track`. 2. **Implement Symptom-to-Diagnosis Function** * Write a Python function to: * Accept symptom text. * Call GPT-4/Claude API with JSON-output prompt. * Parse the model’s JSON response into a Python dictionary. * Sanitize and validate JSON output. * Fallback: rule-based approach or offline model for demo cases if API limits are reached. 3. **Testing** * Input various symptom combinations. * Verify sensibility of diagnoses and correctness of ICD-10 codes. * Tweak prompt to improve specificity. * Ensure JSON structure is valid. 4. **Confidence Calibration** * Define how confidence scores are assigned: * Use LLM’s self-reported confidences, or * Rank by output order. * Document confidence methodology in README. 5. **Integrate with Gradio Blocks** * Wrap the function in a Gradio interface (`gr.Interface` or `gr.ChatInterface`). * Expose function as an MCP tool with appropriate metadata. * Test via `gradio.Client` or HTTP requests. 6. **Build a Quick Client (Optional)** * Option A: Second Gradio Space as MCP client showing how an LLM calls the tool. * Option B: Local script using `requests` to call the deployed Space’s prediction API. * Prepare a screen recording illustrating agent invocation. 7. **Polish Documentation** * In README: * Explain tool functionality and usage. * Include hackathon requirements: track tag, demo video or client link. * List technologies used (e.g., “Uses OpenAI GPT-4 via API to map symptoms to diagnoses”). * Provide example usage and sample inputs/outputs. *By completing these steps, the MVP will demonstrate end-to-end functionality: input symptoms → structured diagnostic insights with ICD-10 codes and confidence scores via an MCP server.*