A comprehensive framework for data annotation in surgical robotics, designed to optimize the development of ML models for surgical robots.
A recommender system that assesses the difficulty of medical images by assigning them an epistemic score, helping data annotators prioritize which images require more attention.
Developing auto-segmentation algorithms that utilize various types of user prompts to guide the model in accurately segmenting images by highlighting key areas of interest.
Developing an advanced system that integrates Large Language Models (LLMs) with visual data to enhance medical image segmentation. This multi-modal approach combines textual descriptions with visual cues, using natural language processing and pre-trained models like BERT or GPT to create a more comprehensive and accurate segmentation system.
This demo simulates how our AI framework can assist in medical image annotation.
The traditional approach to medical image segmentation requires manual annotation by experts, which is time-consuming and prone to human error.
Draw on the image to segment the selected body part
As you just saw, manual annotation of medical images is a time-consuming and error-prone process. Each image requires careful attention to detail, and even experienced medical professionals can make mistakes or be inconsistent in their annotations.
Training effective AI models for medical image analysis typically requires thousands of accurately labeled images. Each labeling job is expensive, with costs often reaching hundreds of dollars per hour for specialized medical expertise. The time and money spent on annotation is frequently the bottleneck in developing new medical AI applications.
For example, a single complex medical image can take over a minute for a trained expert to fully segment. With a dataset of 50,000 images, this would require hundreds of hours of expert time. At high per hour rates for specialized medical expertise, the annotation cost alone would be substantial.
Our epistemic uncertainty scoring system helps identify regions where the model is less confident, guiding annotation efforts to areas that need human expertise.
Move the slider to see across the MRI slices
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Drag the slider to compare the original CT slice with its segmentation result.
Select one organ and the heat map below the canvas will show where there are more issues across the scan. Darker colors indicate more problems in that region.
After the initial training of a medical image segmentation model, researchers must identify which parts of the data distribution the model performs worst on to collect new data for improvement.
This process is challenging because data collection often happens in parallel often without direct supervision from the researcher, generating huge volumes of data where it's not always clear which specific images or regions are problematic for the model. Since models as the one shown can have more than 100 classes, without a systematic approach, researchers might waste resources annotating images that don't significantly improve model performance.
Our epistemic uncertainty scoring system provides a straightforward and systematic approach to identify only the images that matter most for future annotation. By quantifying the model's uncertainty in its predictions, we can:
This demo simulates how our epistemic scoring system would help researchers identify the most challenging images from a dataset, allowing them to focus their limited annotation resources on the images that will have the greatest impact on model performance.
Our assisted segmentation system combines human expertise with AI to create a collaborative annotation experience.
Draw on the image to segment the selected body part
This interactive demo simulates how our Surgical AI Labelling Framework can assist in medical image annotation. In a real implementation, our framework would use advanced machine learning models to:
This demo is a simplified version to showcase the concept. Our actual framework will incorporate more sophisticated algorithms and models as outlined in our project roadmap.
Our advanced assisted segmentation system uses cutting-edge AI to provide intelligent suggestions and real-time feedback during the annotation process.
This interactive demo simulates how advanced assisted labelling can expand the capabilities of the tool:
This demo is a simplified version to showcase the concept. Our actual framework will also leverage information from medical literature for better segmentation performance.