Demo for UniMed-CLIP Medical VLMs
Generate disease analysis from chest X-rays
Start a healthcare AI assistant to get medical information
Segment 3D medical images with text and spatial prompts
Classify lung cancer cases from images
Evaluate heart disease risk based on personal data
Display prediction results for medical health status
Evaluate your diabetes risk with input data
Predict brain tumor type from MRI images
Upload EEG data to classify signals as Normal or Abnormal
Analyze X-ray images to classify pneumonia types
Generate detailed chest X-ray segmentations
Predict sperm retrieval success rate
Unimed Clip Medical Image Zero Shot Classification is a cutting-edge demo application designed for medical image classification using advanced Vision-Language Models (VLMs). Built on the UniMed-CLIP framework, it leverages zero-shot learning to classify medical images without requiring task-specific training data. This tool is particularly useful for healthcare professionals and researchers to quickly analyze and classify medical images into predefined categories.
• Zero-Shot Learning Capability: Classify medical images without task-specific training data.
• Support for Multiple Medical Image Types: Works with commonly used medical imaging formats such as X-rays, CT scans, and MRIs.
• High Accuracy: Utilizes state-of-the-art models for precise image classification.
• User-Friendly Interface: Designed for easy integration into existing workflows and systems.
• Customizable: Allows for fine-tuning with custom datasets or labels for specific use cases.
What is zero-shot learning?
Zero-shot learning enables the model to classify images into classes it has never seen during training, leveraging the contextual knowledge it has gained from large-scale pre-training.
Which types of medical images does it support?
The tool supports a variety of medical imaging formats, including X-rays, CT scans, MRI scans, and ultrasonography images.
Can I customize the classification labels?
Yes, you can customize the classification labels by fine-tuning the model with your own dataset or by providing custom labels during inference.