Code-free deep segmentation for computational pathology

Overview

NoCodeSeg: Deep segmentation made easy!

This is the official repository for the manuscript "Code-free development and deployment of deep segmentation models for digital pathology", submitted to Frontiers in Medicine.

The repository contains trained deep models for epithelium segmentation of HE and CD3 immunostained WSIs, as well as source code relevant for importing/exporting annotations/predictions in QuPath, from DeepMIB, and FastPathology. See here for how to download the 251 annotated WSIs.

Getting started

Watch the video

A video tutorial of the proposed pipeline was published on YouTube. It demonstrates the steps for:

  • Downloading and installing the softwares
  • QuPath
    • Create a project, then export annotations as patches with label files
    • Export patches from unannotated images for prediction in DeepMIB
    • (later) Import predictions for MIB and FastPathology as annotations
  • MIB
    • Use the annotated patches/labels exported from QuPath
    • Configuring and training deep segmentation models (i.e. U-Net/SegNet)
    • Use the trained U-net to predict unannotated patches exported from QuPath
    • Export trained models into the ONNX format for use in FastPathology
  • FastPathology
    • Importing and creating a configuration file for the DeepMIB exported ONNX model
    • Create a project and load WSIs into a project
    • Use the U-Net ONNX model to render predictions on top of the WSI in real time
    • Export full sized WSI tiffs for import into QuPath

Data

The 251 annotated WSIs are being processed before publishing on DataverseNO, where it will be made openly available for anyone

Reading annotations

The annotations are stored as tiled, pyramidal TIFFs, which makes it easy to generate patches from the data without the need for any preprocessing. Reading these files and working with them to generate training data, is already described in the tutorial video above.

TL;DR: Load TIFF as annotations in QuPath using provided groovy script and exporting these as labelled tiles.

Reading annotation in Python

However, if you wish to use Python, the annotations can be read exactly the same way as regular WSIs (for instance using OpenSlide):

import openslide

reader = ops.OpenSlide("path-to-annotation-image.tiff")
patch = reader.read_region(location=(x, y), level, size=(w, h))
reader.close()

Pixels here will be one-to-one with the original WSI. To generate patches for training, it is also possible to use pyFAST, which does the patching for you. For an example see here.

Citation

Please, consider citing our paper, if you find the work useful:

  @misc{pettersen2021codefree,
  title={Code-free development and deployment of deep segmentation models for digital pathology}, 
  author={Henrik Sahlin Pettersen and Ilya Belevich and Elin Synnøve Røyset and Erik Smistad and Eija Jokitalo and Ingerid Reinertsen and Ingunn Bakke and André Pedersen},
  year={2021},
  eprint={2111.08430},
  archivePrefix={arXiv},
  primaryClass={q-bio.QM}}
Comments
  • Create model multiple classes

    Create model multiple classes

    Hi @andreped

    Thanks for this great software and workflow. I would like to generate a model which classifies the epithelia in the colon from WSIs into villi (usually at the boundary) and crypts (circular structures). Essentially, there would be 3 classes,

    • background
    • villi and
    • crypts

    My plan is to use your models to generate annotations from my WSIs, import into QuPath, correct them, and then split annotations into different classes.

    How do I configure image export for 3 different classes from QuPath, train in MIB and then run on FastPathology?

    Is it possible to do this and is this a good workflow idea?

    Cheers Pradeep

    enhancement good first issue 
    opened by pr4deepr 19
  • Add instructions on how to run WSI-level predictions

    Add instructions on how to run WSI-level predictions

    As our TileImporter script does not support multi-class, the alternative method is to run predictions on WSI level.

    This requires you to do something slightly different when running predictions from what was done in the tutorial video.

    However, I don't see that there is any documentations for this. This should be added to assist users.

    enhancement 
    opened by andreped 10
  • Import tiles script QuPath

    Import tiles script QuPath

    Hi @andreped When I try the import pyramidal tiff script to improve annotations generated by FastPathology, the annotations are smaller by 4 times compared to the WSI. I can't enter a value to control for downsample in the new script anymore. It looks like the script has been updated compared to the on in the video I've reused the old version of the script to import annotations for now .

    Cheers Pradeep

    bug enhancement 
    opened by pr4deepr 7
  • Export Tiles from QuPath with multiple classes

    Export Tiles from QuPath with multiple classes

    First some context: I am attempting to obtain multi-class segmentation of cerebellum tissue with different cellular layers corresponding to separate classes. I have annotated four classes: 'EGL', 'Molecular layer', 'IGL', and 'WM' on QuPath. I tested export tiles with multiple classes from QuPath using two the two different scripts available. Here are the issues I am having with both:

    1. The script by @andreped is giving me an error:

    ERROR: MissingMethodException at line 61: No signature of method: qupath.lib.images.writers.TileExporter.labeledServer() is applicable for argument types: (qupath.lib.images.servers.LabeledImageServer$Builder) values: [[email protected]] Possible solutions: labeledServer(qupath.lib.images.servers.ImageServer)

    ERROR: org.codehaus.groovy.runtime.ScriptBytecodeAdapter.unwrap(ScriptBytecodeAdapter.java:70) org.codehaus.groovy.runtime.callsite.PojoMetaClassSite.call(PojoMetaClassSite.java:46) org.codehaus.groovy.runtime.callsite.CallSiteArray.defaultCall(CallSiteArray.java:47) org.codehaus.groovy.runtime.callsite.AbstractCallSite.call(AbstractCallSite.java:125) org.codehaus.groovy.runtime.callsite.AbstractCallSite.call(AbstractCallSite.java:139) Script16.run(Script16.groovy:62) org.codehaus.groovy.jsr223.GroovyScriptEngineImpl.eval(GroovyScriptEngineImpl.java:317) org.codehaus.groovy.jsr223.GroovyScriptEngineImpl.eval(GroovyScriptEngineImpl.java:155) qupath.lib.gui.scripting.DefaultScriptEditor.executeScript(DefaultScriptEditor.java:982) qupath.lib.gui.scripting.DefaultScriptEditor.executeScript(DefaultScriptEditor.java:914) qupath.lib.gui.scripting.DefaultScriptEditor.executeScript(DefaultScriptEditor.java:829) qupath.lib.gui.scripting.DefaultScriptEditor$2.run(DefaultScriptEditor.java:1345) java.base/java.util.concurrent.Executors$RunnableAdapter.call(Unknown Source) java.base/java.util.concurrent.FutureTask.run(Unknown Source) java.base/java.util.concurrent.ThreadPoolExecutor.runWorker(Unknown Source) java.base/java.util.concurrent.ThreadPoolExecutor$Worker.run(Unknown Source) java.base/java.lang.Thread.run(Unknown Source)

    1. The script by @pr4deepr is yielding what I need (see below), however, many of the tiles are just background. Is there a way to incorporate the glassthreshold in the script by @andreped to avoid the tiles with too much background? Additionally, in order to get this script to work, I had to edit this line to .multichannelOutput(false).

    20211026_Javid_01Image_01 vsi - 20x  d=5 79044,x=10376,y=36318,w=2965,h=2964

    bug 
    opened by aaronsathya 6
  • generic multi-class support?

    generic multi-class support?

    The current importTiles script does not seem to support importing patches of multiple labels. This one is quite annoying to add multi-class support for, but is something we could try to do early next week? Let us schedule a session.

    There have been implemented multi-class variants for the other scripts (i.e., exportTiles and importPyramidalTIFF), but these have not been tested in various scenarios. Currently, these are split into separate scripts; one for single-class and one for multi-class, but I think the multi-class scripts might actually handle the single-class situation as well. Could you run some checks in your pipeline to see if the multi-class scripts are sufficient?

    enhancement 
    opened by andreped 4
  • Result from FastPathology fails to import in QuPath

    Result from FastPathology fails to import in QuPath

    This was observed and discussed in another Issue in the FastPathology repo: https://github.com/AICAN-Research/FAST-Pathology/issues/45

    Opening an Issue here to track the issue.

    This is likely due to the changed in how the predictions are stored on disk in the new FastPathology version v1.0.1.

    bug 
    opened by andreped 2
  • Download count is not updating

    Download count is not updating

    Currently, the current download count in the download shield is fixed.

    That is because there was no easy way to catch the current count through markdown.

    I attempted to create a JS and Python solution for doing that, which were to be run periodically through github actions, but that would result in lots of redundant commits, that are not relevant for the user.

    I'll have it fixed until I have time to come up with a better solution.

    enhancement help wanted 
    opened by andreped 1
  • multiclass_export_tiles

    multiclass_export_tiles

    The main change is multichannelOutput is set to true and there is a label export for each threshold.

    // Create an ImageServer where the pixels are derived from annotations
    //added option for multi-class export
    def labelServer = new LabeledImageServer.Builder(imageData)
        .backgroundLabel(0, ColorTools.WHITE) // Specify background label (usually 0 or 255)
        .downsample(downsample)    // Choose server resolution; this should match the resolution at which tiles are exported
        .addLabel('Epithelia', 1)      // Choose output labels (Define Threshold for each value for each label)
        .addLabel('Crypt', 2)
        .multichannelOutput(true)  // If true, each label is a different channel (required for multiclass probability)
        .build()
    
    

    Ideally, a loop to run through each label would be nice, so we don't have to define it manually

    opened by pr4deepr 0
  • Multi-class tile import?

    Multi-class tile import?

    The current tileImport script does not support multiclass tiles, that is produced prediction tiles generated from MIB by a trained multi-class model.

    It is possible to import predictions from MIB to QuPath by predicting on the full WSI in MIB which produces a stitched prediction image, which can be imported in QuPath using the importStitchedTIFfromMIBscript, similarly as done for FastPathology. And therefore, for the full pipeline a tile importer is not critical for using our pipeline.

    However, there are scenarios where having a tile importer is beneficial over the other alternative, for instance if one only wishes to run prediction on a smaller region of the WSI (based on segmentations in QuPath) - which can be especially helpful if the image is extremely large. This can make inference a lot faster.

    It is possible to do such a workflow in FastPathology, given that you provide the region of interest to run inference on. However, no such method has been made easily accessible. It would also require annotations or a model that can produce these ROI segmentation to use as a preprocessing step for the next patch-wise model.

    Therefore, having multi-class support for the tile importer could be a valuable feature.

    enhancement 
    opened by andreped 1
Releases(download-badge)
  • download-badge(Jun 21, 2022)

  • v1.0.0(Jun 13, 2022)

    Released code relevant for Frontiers article.

    Code is freezed to a release to keep supporting the old versions of FastPathology and QuPath used in the tutorial video.

    Future source code will be made compatible with more recent versions of both softwares.

    Full Changelog: https://github.com/andreped/NoCodeSeg/commits/v1.0.0

    Source code(tar.gz)
    Source code(zip)
Owner
André Pedersen
PhD Candidate in Medical Technology at NTNU | Master of Science at SINTEF Health Research
André Pedersen
Implementation of the "PSTNet: Point Spatio-Temporal Convolution on Point Cloud Sequences" paper.

PSTNet: Point Spatio-Temporal Convolution on Point Cloud Sequences Introduction Point cloud sequences are irregular and unordered in the spatial dimen

Hehe Fan 63 Dec 09, 2022
AoT is a system for automatically generating off-target test harness by using build information.

AoT: Auto off-Target Automatically generating off-target test harness by using build information. Brought to you by the Mobile Security Team at Samsun

Samsung 10 Oct 19, 2022
Multitask Learning Strengthens Adversarial Robustness

Multitask Learning Strengthens Adversarial Robustness

Columbia University 15 Jun 10, 2022
Label Mask for Multi-label Classification

LM-MLC 一种基于完型填空的多标签分类算法 1 前言 本文主要介绍本人在全球人工智能技术创新大赛【赛道一】设计的一种基于完型填空(模板)的多标签分类算法:LM-MLC,该算法拟合能力很强能感知标签关联性,在多个数据集上测试表明该算法与主流算法无显著性差异,在该比赛数据集上的dev效果很好,但是由

52 Nov 20, 2022
Codes of the paper Deformable Butterfly: A Highly Structured and Sparse Linear Transform.

Deformable Butterfly: A Highly Structured and Sparse Linear Transform DeBut Advantages DeBut generalizes the square power of two butterfly factor matr

Rui LIN 8 Jun 10, 2022
A framework for Quantification written in Python

QuaPy QuaPy is an open source framework for quantification (a.k.a. supervised prevalence estimation, or learning to quantify) written in Python. QuaPy

41 Dec 14, 2022
Official Implementation of PCT

Official Implementation of PCT Prerequisites python == 3.8.5 Please make sure you have the following libraries installed: numpy torch=1.4.0 torchvisi

32 Nov 21, 2022
DziriBERT: a Pre-trained Language Model for the Algerian Dialect

DziriBERT DziriBERT is the first Transformer-based Language Model that has been pre-trained specifically for the Algerian Dialect. It handles Algerian

117 Jan 07, 2023
Computationally efficient algorithm that identifies boundary points of a point cloud.

BoundaryTest Included are MATLAB and Python packages, each of which implement efficient algorithms for boundary detection and normal vector estimation

6 Dec 09, 2022
A project for developing transformer-based models for clinical relation extraction

Clinical Relation Extration with Transformers Aim This package is developed for researchers easily to use state-of-the-art transformers models for ext

uf-hobi-informatics-lab 101 Dec 19, 2022
PyTorch implementation of hand mesh reconstruction described in CMR and MobRecon.

Hand Mesh Reconstruction Introduction This repo is the PyTorch implementation of hand mesh reconstruction described in CMR and MobRecon. Update 2021-1

Xingyu Chen 236 Dec 29, 2022
Official PyTorch Implementation of HELP: Hardware-adaptive Efficient Latency Prediction for NAS via Meta-Learning (NeurIPS 2021 Spotlight)

[NeurIPS 2021 Spotlight] HELP: Hardware-adaptive Efficient Latency Prediction for NAS via Meta-Learning [Paper] This is Official PyTorch implementatio

42 Nov 01, 2022
The official implementation of the Interspeech 2021 paper WSRGlow: A Glow-based Waveform Generative Model for Audio Super-Resolution.

WSRGlow The official implementation of the Interspeech 2021 paper WSRGlow: A Glow-based Waveform Generative Model for Audio Super-Resolution. Audio sa

Kexun Zhang 96 Jan 03, 2023
An open framework for Federated Learning.

Welcome to Intel® Open Federated Learning Federated learning is a distributed machine learning approach that enables organizations to collaborate on m

Intel Corporation 397 Dec 27, 2022
OpenAi's gym environment wrapper to vectorize them with Ray

Ray Vector Environment Wrapper You would like to use Ray to vectorize your environment but you don't want to use RLLib ? You came to the right place !

Pierre TASSEL 15 Nov 10, 2022
Public repository of the 3DV 2021 paper "Generative Zero-Shot Learning for Semantic Segmentation of 3D Point Clouds"

Generative Zero-Shot Learning for Semantic Segmentation of 3D Point Clouds Björn Michele1), Alexandre Boulch1), Gilles Puy1), Maxime Bucher1) and Rena

valeo.ai 15 Dec 22, 2022
A PyTorch Reimplementation of TecoGAN: Temporally Coherent GAN for Video Super-Resolution

TecoGAN-PyTorch Introduction This is a PyTorch reimplementation of TecoGAN: Temporally Coherent GAN for Video Super-Resolution (VSR). Please refer to

165 Dec 17, 2022
Equivariant Imaging: Learning Beyond the Range Space

Equivariant Imaging: Learning Beyond the Range Space Equivariant Imaging: Learning Beyond the Range Space Dongdong Chen, Julián Tachella, Mike E. Davi

Dongdong Chen 46 Jan 01, 2023
A module for solving and visualizing Schrödinger equation.

qmsolve This is an attempt at making a solid, easy to use solver, capable of solving and visualize the Schrödinger equation for multiple particles, an

506 Dec 28, 2022