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bowang-lab/MedSAM

0
View on GitHub↗
4,316 stars·589 forks·Jupyter Notebook·Apache-2.0·17 viewswww.nature.com/articles/s41467-024-44824-z↗

MedSAM

MedSAM is a deep learning framework designed for automating the segmentation of anatomical structures in 2D and 3D medical imagery. It provides specialized tools for fine-tuning pretrained segmentation weights on custom medical datasets and evaluating the accuracy of those predictions against ground truth labels.

The project focuses on adapting the Segment Anything Model architecture for medical use, enabling the isolation of specific anatomical structures through prompt-guided methods such as bounding boxes and point prompts.

The system covers a full medical AI workflow, including data engineering for intensity normalization and spatial resampling, as well as model management for checkpoint conversion and weight extraction. It supports training via single or distributed GPU pipelines to process large-scale imaging datasets.

Features

  • Medical Image Segmentations - Automates the identification and isolation of specific anatomical structures in 2D and 3D medical scans.
  • Image Segmentations - Implements a deep learning framework for partitioning 2D and 3D medical images into anatomical foreground and background pixels.
  • Segmentation Model Training - Optimizes model weights using single or distributed GPU clusters to learn complex image patterns in medical scans.
  • SAM-Based Implementations - Implements the Segment Anything Model architecture to automate anatomical structure segmentation in medical imagery.
  • Medical Imaging Training Frameworks - Offers a PyTorch-based training framework optimized for processing large-scale medical imaging datasets on single or distributed GPUs.
  • Prompt-Guided Anatomical Segmentations - Provides prompt-guided segmentation of anatomical structures using bounding boxes and point prompts.
  • Segmentation Evaluation Metrics - Computes quantitative performance metrics by comparing medical image predictions against expert ground truth labels.
  • Prompt-Based Segmentations - Enables isolation of anatomical structures using bounding boxes and point prompts to guide the segmentation model.
  • Model Fine-Tuning - Implements a training pipeline for optimizing pretrained segmentation weights on custom medical datasets.
  • Vision Model Fine-Tuning - Optimizes a Segment Anything Model on custom medical datasets to improve segmentation accuracy for specific anatomy.
  • Segmentation Model Testing - Quantifies segmentation accuracy by comparing model predictions against expert ground truth labels using standard metrics.
  • Distributed GPU Training - Ships a distributed GPU training pipeline to synchronize gradients across multiple cards for large-scale medical datasets.
  • Weight Remapping - Implements checkpoint weight transformation to ensure seamless compatibility between training and inference environments.
  • Medical Imaging Preprocessing Tools - Transforms various medical imaging file types into unified data structures for downstream preprocessing.
  • Model Checkpoint Converters - Includes utilities to transform trained model weights into compatible formats for streamlined deployment and inference.
  • Weight Extraction - Provides tools for extracting and standardizing model weights from checkpoints to ensure correct loading during inference.
  • Medical Segmentation Metrics - Computes accuracy metrics by comparing medical image segmentation predictions against expert ground truth labels.
  • Medical Dataset Formatting - Converts raw medical images and labels into optimized binary formats for efficient supervised learning.
  • Medical Image Normalization - Normalizes raw medical imaging files by adjusting window levels and resampling dimensions for ML pipelines.
  • Image Dimension Standardizations - Standardizes voxel size and image dimensions across diverse medical datasets for consistent model processing.
  • DICOM Windowing Adjusters - Adjusts window levels and width to normalize contrast and brightness of medical images across different scanners.

Star history

Star history chart for bowang-lab/medsamStar history chart for bowang-lab/medsam

How this analysis was created: This summary and feature list are AI-generated from collected project material and can contain mistakes. Stars, license and language are imported from GitHub. Inclusion does not mean that we have tested or audited this project. Check the source documentation for any feature you depend on. Learn more on our About page.

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Projects sharing features with MedSAM

These projects share indexed features with MedSAM. Shared tags can include platform or build tooling; verify the primary use case before treating a result as a replacement.
  • wasserth/totalsegmentatorwasserth avatar

    wasserth/TotalSegmentator

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    TotalSegmentator is a medical image segmentation tool and AI-driven organ segmenter designed to isolate anatomical structures from CT scans. It functions as a deep learning anatomy parser and quantitative radiomics analyzer, providing a framework for identifying diverse body tissues and bones to create precise anatomical masks. The system distinguishes itself through a comprehensive medical analysis suite that includes patient biometric estimation for demographics such as age, sex, weight, and height. It further provides specialized clinical index calculations and modality and phase classific

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  • leejunhyun/image_segmentationLeeJunHyun avatar

    LeeJunHyun/Image_Segmentation

    3,063View on GitHub↗

    This project is a biomedical image segmentation framework and PyTorch computer vision library. It provides a deep learning pipeline for isolating specific anatomical structures within medical imagery using pixel-level binary classification. The system utilizes an encoder-decoder neural architecture combined with attention-based feature refinement to highlight relevant anatomical regions and suppress background noise. The toolkit covers a full training workflow, including stochastic data augmentation for biomedical datasets, hyperparameter optimization, and model persistence for restoring pre

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    View on GitHub↗3,063
  • project-monai/monaiProject-MONAI avatar

    Project-MONAI/MONAI

    7,869View on GitHub↗

    MONAI is a PyTorch-based deep learning framework and library specifically designed for healthcare imaging. It provides a suite of domain-specific neural network architectures, specialized loss functions, and preprocessing pipelines tailored for analyzing multi-dimensional medical data. The project distinguishes itself through a decentralized federated learning system that allows models to learn from datasets across multiple institutions without exchanging raw patient images. It also features AI-assisted medical image annotation tools and a standardized model bundling system to ensure consiste

    Pythondeep-learninghealthcare-imagingmedical-image-computing
    View on GitHub↗7,869
  • fastai/course22fastai avatar

    fastai/course22

    3,398View on GitHub↗

    This is a structured deep learning curriculum for programmers, delivered as a collection of Jupyter notebooks. It teaches the fundamentals of training neural networks for computer vision, natural language processing, tabular data analysis, and collaborative filtering using PyTorch and the fastai library. The course is designed to be hands-on, guiding learners from building a training loop from scratch to fine-tuning pretrained models for a variety of practical tasks. The curriculum distinguishes itself by covering the full lifecycle of a deep learning project, from data preparation and augmen

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Frequently asked questions

What does bowang-lab/medsam do?

MedSAM is a deep learning framework designed for automating the segmentation of anatomical structures in 2D and 3D medical imagery. It provides specialized tools for fine-tuning pretrained segmentation weights on custom medical datasets and evaluating the accuracy of those predictions against ground truth labels.

What are the main features of bowang-lab/medsam?

The main features of bowang-lab/medsam are: Medical Image Segmentations, Image Segmentations, Segmentation Model Training, SAM-Based Implementations, Medical Imaging Training Frameworks, Prompt-Guided Anatomical Segmentations, Segmentation Evaluation Metrics, Prompt-Based Segmentations.

Which projects share features with bowang-lab/medsam?

Projects with overlapping indexed features include: wasserth/totalsegmentator — TotalSegmentator is a medical image segmentation tool and AI-driven organ segmenter designed to isolate anatomical… leejunhyun/image_segmentation — This project is a biomedical image segmentation framework and PyTorch computer vision library. It provides a deep… project-monai/monai — MONAI is a PyTorch-based deep learning framework and library specifically designed for healthcare imaging. It provides… fastai/course22 — This is a structured deep learning curriculum for programmers, delivered as a collection of Jupyter notebooks. It… fastai/course-v3 — This repository is a comprehensive educational program and deep learning framework designed to teach practical deep… zhengpeng7/birefnet — BiRefNet is a PyTorch image segmentation framework designed for high-precision binary mask generation. It functions as…