Clinical Data Solutions

Transforming healthcare through advanced multimodal clinical dataset construction and AI-driven diagnostics.

Data Collection Phase

Collecting and annotating 5,000 cases for accurate diagnosis and treatment recommendations.

The image depicts a clean and modern hospital room featuring a hospital bed with advanced monitoring equipment attached. The room is well-lit with ceiling lights and has a large window with blinds, allowing natural light to enter. The floors are made of polished wood, and there are neutral-colored walls. Medical equipment and a computer monitor are suspended above the bed, contributing to the sterile and professional atmosphere of the room.
The image depicts a clean and modern hospital room featuring a hospital bed with advanced monitoring equipment attached. The room is well-lit with ceiling lights and has a large window with blinds, allowing natural light to enter. The floors are made of polished wood, and there are neutral-colored walls. Medical equipment and a computer monitor are suspended above the bed, contributing to the sterile and professional atmosphere of the room.
Prompt Engineering

Creating hierarchical templates for symptom extraction and diagnostic recommendations using real-time data.

A medical monitor displays various vital signs and readings, including an ECG line showing heart activity, numbers indicating SPO2 levels, and blood pressure. The screen is prominently labeled with 'DEMO', and the monitor is manufactured by Mindray.
A medical monitor displays various vital signs and readings, including an ECG line showing heart activity, numbers indicating SPO2 levels, and blood pressure. The screen is prominently labeled with 'DEMO', and the monitor is manufactured by Mindray.

In medical diagnostics, while large language models (LLMs) like the GPT series demonstrate promise for generating diagnostic reasoning, assisting with imaging reports, and summarizing patient notes, their black-box nature, miscalibrated confidence, and occasional hallucinations impede clinical adoption and physician trust. Thus, our core research question is: How can we “tame” LLMs so that they achieve high accuracy, explainability, and safety in medical diagnosis, while actively calibrating confidence and rejecting high-risk suggestions?

Sub-questions include:

Alignment with Medical Ontologies and Guidelines: Can we fine-tune and inject domain knowledge such that the model adheres to ICD-11, SNOMED CT, and evidence-based guidelines, reducing guideline-noncompliant inferences by up to 70%?

Chain-of-Thought Explainability: How can the model output a clear multi-step reasoning chain—symptoms → physical findings → ancillary tests → differential diagnoses—alongside conclusions for physician audit?

Confidence Calibration & Rejection Mechanism: When presented with complex cases or incomplete inputs, can the model provide well-calibrated confidence scores and automatically trigger “refer to specialist” alerts when risk exceeds predefined thresholds?

Multimodal Data Fusion: How to effectively integrate medical images, EHR text, and lab results to leverage LLM strengths in text reasoning and multimodal analysis for end-to-end diagnostic support?

We hypothesize that combining retrieval-augmented generation (RAG), domain ontology fine-tuning, and uncertainty regularization will boost diagnostic accuracy by ≥15%, reduce Expected Calibration Error (ECE) by ≥30%, and achieve an explanation coherence score ≥0.9 in expert evaluations.