Segmentation for medical image.

Overview

EfficientSegmentation

Introduction

EfficientSegmentation is an open source, PyTorch-based segmentation framework for 3D medical image.

Features

  • A whole-volume-based coarse-to-fine segmentation framework. The segmentation network is decomposed into different components, including encoder, decoder and context module. Anisotropic convolution block and anisotropic context block are designed for efficient and effective segmentation.
  • Pre-process data in multi-process. Distributed and Apex training support. Postprocess is performed asynchronously in inference stage.

Benchmark

Task Architecture Parameters(MB) Flops(GB) DSC NSC Inference time(s) GPU memory(MB)
FLARE21 BaseUNet 11 812 0.908 0.837 0.92 3183
FLARE21 EfficientSegNet 9 333 0.919 0.848 0.46 2269

Installation

Installation by docker image

  • Download the docker image.
  link: https://pan.baidu.com/s/1UkMwdntwAc5paCWHoZHj9w 
  password:9m3z
  • Put the abdomen CT image in current folder $PWD/inputs/.
  • Run the testing cases with the following code:
docker image load < fosun_aitrox.tgz
nvidia-docker container run --name fosun_aitrox --rm -v $PWD/inputs/:/workspace/inputs/ -v $PWD/outputs/:/workspace/outputs/ fosun_aitrox:latest /bin/bash -c "sh predict.sh"'

Installation step by step

Environment

  • Ubuntu 16.04.12
  • Python 3.6+
  • Pytorch 1.5.0+
  • CUDA 10.0+

1.Git clone

git clone https://github.com/Shanghai-Aitrox-Technology/EfficientSegmentation.git

2.Install Nvidia Apex

  • Perform the following command:
git clone https://github.com/NVIDIA/apex
cd apex
pip install -v --no-cache-dir ./

3.Install dependencies

pip install -r requirements.txt

Get Started

preprocessing

  1. Download FLARE21, resulting in 361 training images and masks, 50 validation images.
  2. Copy image and mask to 'FlareSeg/dataset/' folder.
  3. Edit the 'FlareSeg/data_prepare/config.yaml'. 'DATA_BASE_DIR'(Default: FlareSeg/dataset/) is the base dir of databases. If set the 'IS_SPLIT_5FOLD'(Default: False) to true, 5-fold cross-validation datasets will be generated.
  4. Run the data preprocess with the following command:
python FlareSeg/data_prepare/run.py

The image data and lmdb file are stored in the following structure:

DATA_BASE_DIR directory structure:
├── train_images
   ├── train_000_0000.nii.gz
   ├── train_001_0000.nii.gz
   ├── train_002_0000.nii.gz
   ├── ...
├── train_mask
   ├── train_000.nii.gz
   ├── train_001.nii.gz
   ├── train_002.nii.gz
   ├── ...
└── val_images
    ├── validation_001_0000.nii.gz
    ├── validation_002_0000.nii.gz
    ├── validation_003_0000.nii.gz
    ├── ...
├── file_list
    ├──'train_series_uids.txt', 
    ├──'val_series_uids.txt',
    ├──'lesion_case.txt',
├── db
    ├──seg_raw_train         # The 361 training data information.
    ├──seg_raw_test          # The 50 validation images information.
    ├──seg_train_database    # The default training database.
    ├──seg_val_database      # The default validation database.
    ├──seg_pre-process_database # Temporary database.
    ├──seg_train_fold_1
    ├──seg_val_fold_1
├── coarse_image
    ├──160_160_160
          ├── train_000.npy
          ├── train_001.npy
          ├── ...
├── coarse_mask
    ├──160_160_160
          ├── train_000.npy
          ├── train_001.npy
          ├── ...
├── fine_image
    ├──192_192_192
          ├── train_000.npy
          ├── train_001.npy
          ├──  ...
├── fine_mask
    ├──192_192_192
          ├── train_000.npy
          ├── train_001.npy
          ├── ...

The data information is stored in the lmdb file with the following format:

{
    series_id = {
        'image_path': data.image_path,
        'mask_path': data.mask_path,
        'smooth_mask_path': data.smooth_mask_path,
        'coarse_image_path': data.coarse_image_path,
        'coarse_mask_path': data.coarse_mask_path,
        'fine_image_path': data.fine_image_path,
        'fine_mask_path': data.fine_mask_path
    }
}

Training

Remark: Coarse segmentation is trained on Nvidia GeForce 2080Ti(Number:8) in the experiment, while fine segmentation on Nvidia A100(Number:4). If you use different hardware, please set the "ENVIRONMENT.NUM_GPU", "DATA_LOADER.NUM_WORKER" and "DATA_LOADER.BATCH_SIZE" in 'FlareSeg/coarse_base_seg/config.yaml' and 'FlareSeg/fine_efficient_seg/config.yaml' files.

Coarse segmentation:

  • Edit the 'FlareSeg/coarse_base_seg/config.yaml'
  • Train coarse segmentation with the following command:
cd FlareSeg/coarse_base_seg
sh run.sh

Fine segmentation:

  • Edit the 'FlareSeg/fine_efficient_seg/config.yaml'.
  • Edit the 'FlareSeg/fine_efficient_seg/run.py', set the 'tune_params' for different experiments.
  • Train fine segmentation with the following command:
cd  FlareSeg/fine_efficient_seg
sh run.sh

Inference:

  • The model weights are stored in 'FlareSeg/model_weights/'.
  • Run the inference with the following command:
sh predict.sh

Contact

This repository is currently maintained by Fan Zhang ([email protected]) and Yu Wang ([email protected])

Citation

Acknowledgement

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