Multimodal Medical Report Generation With ML Refinement
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Solution Overview
Problem
Manual generation of medical reports is time-consuming, prone to errors, and inconsistent, leading to potential inaccuracies in recording medical details and complications.
Innovation Solution
An apparatus utilizing machine learning models, including vision-language and speech recognition models, generates medical reports from multi-modal data such as video and audio recordings, patient vital signs, and medical records, refining the reports with a large language model to ensure accuracy and consistency.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If manual report generation is used, then healthcare professionals can write detailed reports with clinical judgment, but the process is time-consuming and reduces productivity
Solution Approach 1:
The patent introduces an automatic report generation system that acts as an intermediary between multi-modal medical data (video, audio, sensor data) and the final medical report. The system processes raw data through ML models to generate drafts, which are then refined by healthcare professionals, reducing their workload while maintaining accuracy through multiple refinement passes.
Solution Approach 2:
The patent replaces the manual mechanical process of report writing with an automated system using vision-language models, speech recognition models, and large language models. These AI models automatically extract information from video recordings, audio recordings, and sensor data to generate report drafts, substituting the manual writing process while allowing professional review.
2Adaptability or versatility
If manual report generation is used, then reports can be customized to individual cases, but inconsistencies and errors increase
Solution Approach 1:
The patent implements a feedback mechanism where the automatic report generation system produces drafts that are reviewed and refined by healthcare professionals. The system allows for iterative refinement passes where inconsistencies are identified and corrected, and the final report is validated against the original multi-modal data to ensure accuracy and consistency.
Solution Approach 2:
The patent creates a universal report generation framework that can handle multiple types of medical procedures and data formats (video, audio, sensor data) through a single integrated system. The system maintains consistency by using standardized processing pipelines while allowing customization for different procedure types through configurable parameters and refinement rules.
3Productivity
If handwritten reports are used, then reports can be written quickly by professionals, but legibility and understanding become difficult
Solution Approach 1:
The patent uses automatic speech recognition to create text copies of spoken medical procedures, and vision-language models to generate text descriptions from video recordings. These automated text generations replace handwritten reports entirely, providing machine-generated, perfectly legible text that maintains the speed advantage while eliminating readability issues.
4Productivity
If automated report generation is implemented, then time and errors are reduced, but system complexity increases
Solution Approach 1:
The patent segments the report generation system into distinct functional modules: a vision-language model for processing video data, a speech recognition model for audio data, a refinement module for improving draft quality, and a validation module for ensuring accuracy. This modular segmentation manages complexity by allowing each component to be developed, tested, and maintained independently while working together to achieve the overall goal of automated report generation.
Data Source
AI summary
The decision process of a first machine learning (ML) model may be explained based on a second ML model implemented on an apparatus. The apparatus may obtain a prediction about an image made based on the first ML model. The apparatus may further determine visual concepts associated with the image that may have been used by the first ML model to make the prediction, and determine respective contributions of the visual concepts to the prediction made by the first ML model. The apparatus may then generate, based on the second ML model, a textual description that explains the respective contributions of the visual concepts to the prediction made by the first ML model. The second ML model may determine respective image features associated with the visual concepts, map the determined image features to corresponding text features, and generate the textual description based at least on the text features.


