Accelerated DL & RL

PyTorch framework for Deep Learning research and development. It was developed with a focus on reproducibility, fast experimentation and code/ideas reusing. Being able to research/develop something new, rather than write another regular train loop.
Break the cycle - use the Catalyst!

Project manifest. Part of PyTorch Ecosystem. Part of Catalyst Ecosystem:

Alchemy - Experiments logging & visualization
Catalyst - Accelerated Deep Learning Research and Development
Reaction - Convenient Deep Learning models serving

Catalyst at AI Landscape.

Catalyst.Segmentation

Note: this repo uses advanced Catalyst Config API and could be a bit out-of-day right now. Use Catalyst's minimal examples section for a starting point and up-to-day use cases, please.

You will learn how to build image segmentation pipeline with transfer learning using the Catalyst framework.

Goals

Install requirements
Prepare data
Run: raw data → production-ready model
Get results
Customize own pipeline

1. Install requirements

Using local environment:

pip install -r requirements/requirements.txt

Using docker:

This creates a build catalyst-segmentation with the necessary libraries:

make docker-build

2. Get Dataset

Try on open datasets

You can use one of the open datasets

/dev/null mv isbi_cleared_191107 ./data/origin elif [[ "$DATASET" == "voc2012" ]]; then # semantic segmentation # http://host.robots.ox.ac.uk/pascal/VOC/voc2012/ wget http://host.robots.ox.ac.uk/pascal/VOC/voc2012/VOCtrainval_11-May-2012.tar tar -xf VOCtrainval_11-May-2012.tar &>/dev/null mkdir -p ./data/origin/images/; mv VOCdevkit/VOC2012/JPEGImages/* $_ mkdir -p ./data/origin/raw_masks; mv VOCdevkit/VOC2012/SegmentationClass/* $_ fi ">

export DATASET="isbi"

rm -rf data/
mkdir -p data

if [[ "$DATASET" == "isbi" ]]; then
    # binary segmentation
    # http://brainiac2.mit.edu/isbi_challenge/
    download-gdrive 1uyPb9WI0t2qMKIqOjFKMv1EtfQ5FAVEI isbi_cleared_191107.tar.gz
    tar -xf isbi_cleared_191107.tar.gz &>/dev/null
    mv isbi_cleared_191107 ./data/origin
elif [[ "$DATASET" == "voc2012" ]]; then
    # semantic segmentation
    # http://host.robots.ox.ac.uk/pascal/VOC/voc2012/
    wget http://host.robots.ox.ac.uk/pascal/VOC/voc2012/VOCtrainval_11-May-2012.tar
    tar -xf VOCtrainval_11-May-2012.tar &>/dev/null
    mkdir -p ./data/origin/images/; mv VOCdevkit/VOC2012/JPEGImages/* $_
    mkdir -p ./data/origin/raw_masks; mv VOCdevkit/VOC2012/SegmentationClass/* $_
fi

Use your own dataset

Prepare your dataset

Data structure

Make sure, that final folder with data has the required structure:

/path/to/your_dataset/
        images/
            image_1
            image_2
            ...
            image_N
        raw_masks/
            mask_1
            mask_2
            ...
            mask_N

Data location

The easiest way is to move your data:
```
mv /path/to/your_dataset/* /catalyst.segmentation/data/origin
```
In that way you can run pipeline with default settings.
If you prefer leave data in /path/to/your_dataset/
- In local environment:
  - Link directory
```
ln -s /path/to/your_dataset $(pwd)/data/origin
```
  - Or just set path to your dataset DATADIR=/path/to/your_dataset when you start the pipeline.
- Using docker
  
  You need to set:
```
   -v /path/to/your_dataset:/data \ #instead default  $(pwd)/data/origin:/data
```
  in the script below to start the pipeline.

3. Segmentation pipeline

Fast&Furious: raw data → production-ready model

The pipeline will automatically guide you from raw data to the production-ready model.

We will initialize Unet model with a pre-trained ResNet-18 encoder. During current pipeline model will be trained sequentially in two stages.

Binary segmentation pipeline

Run in local environment:

CUDA_VISIBLE_DEVICES=0 \
CUDNN_BENCHMARK="True" \
CUDNN_DETERMINISTIC="True" \
WORKDIR=./logs \
DATADIR=./data/origin \
IMAGE_SIZE=256 \
CONFIG_TEMPLATE=./configs/templates/binary.yml \
NUM_WORKERS=4 \
BATCH_SIZE=256 \
bash ./bin/catalyst-binary-segmentation-pipeline.sh

Run in docker:

export LOGDIR=$(pwd)/logs
docker run -it --rm --shm-size 8G --runtime=nvidia \
   -v $(pwd):/workspace/ \
   -v $LOGDIR:/logdir/ \
   -v $(pwd)/data/origin:/data \
   -e "CUDA_VISIBLE_DEVICES=0" \
   -e "USE_WANDB=1" \
   -e "LOGDIR=/logdir" \
   -e "CUDNN_BENCHMARK='True'" \
   -e "CUDNN_DETERMINISTIC='True'" \
   -e "WORKDIR=/logdir" \
   -e "DATADIR=/data" \
   -e "IMAGE_SIZE=256" \
   -e "CONFIG_TEMPLATE=./configs/templates/binary.yml" \
   -e "NUM_WORKERS=4" \
   -e "BATCH_SIZE=256" \
   catalyst-segmentation ./bin/catalyst-binary-segmentation-pipeline.sh

Semantic segmentation pipeline

Run in local environment:

CUDA_VISIBLE_DEVICES=0 \
CUDNN_BENCHMARK="True" \
CUDNN_DETERMINISTIC="True" \
WORKDIR=./logs \
DATADIR=./data/origin \
IMAGE_SIZE=256 \
CONFIG_TEMPLATE=./configs/templates/semantic.yml \
NUM_WORKERS=4 \
BATCH_SIZE=256 \
bash ./bin/catalyst-semantic-segmentation-pipeline.sh

Run in docker:

export LOGDIR=$(pwd)/logs
docker run -it --rm --shm-size 8G --runtime=nvidia \
   -v $(pwd):/workspace/ \
   -v $LOGDIR:/logdir/ \
   -v $(pwd)/data/origin:/data \
   -e "CUDA_VISIBLE_DEVICES=0" \
   -e "USE_WANDB=1" \
   -e "LOGDIR=/logdir" \
   -e "CUDNN_BENCHMARK='True'" \
   -e "CUDNN_DETERMINISTIC='True'" \
   -e "WORKDIR=/logdir" \
   -e "DATADIR=/data" \
   -e "IMAGE_SIZE=256" \
   -e "CONFIG_TEMPLATE=./configs/templates/semantic.yml" \
   -e "NUM_WORKERS=4" \
   -e "BATCH_SIZE=256" \
   catalyst-segmentation ./bin/catalyst-semantic-segmentation-pipeline.sh

The pipeline is running and you don’t have to do anything else, it remains to wait for the best model!

Visualizations

You can use W&B account for visualisation right after pip install wandb:

wandb: (1) Create a W&B account
wandb: (2) Use an existing W&B account
wandb: (3) Don't visualize my results

Tensorboard also can be used for visualisation:

tensorboard --logdir=/catalyst.segmentation/logs

4. Results

All results of all experiments can be found locally in WORKDIR, by default catalyst.segmentation/logs. Results of experiment, for instance catalyst.segmentation/logs/logdir-191107-094627-2f31d790, contain:

checkpoints

The directory contains all checkpoints: best, last, also of all stages.
best.pth and last.pht can be also found in the corresponding experiment in your W&B account.

configs

The directory contains experiment`s configs for reproducibility.

logs

The directory contains all logs of experiment.
Metrics also logs can be displayed in the corresponding experiment in your W&B account.

code

The directory contains code on which calculations were performed. This is necessary for complete reproducibility.

5. Customize own pipeline

For your future experiments framework provides powerful configs allow to optimize configuration of the whole pipeline of segmentation in a controlled and reproducible way.

Configure your experiments

Common settings of stages of training and model parameters can be found in catalyst.segmentation/configs/_common.yml.
- model_params: detailed configuration of models, including:
  - model, for instance ResnetUnet
  - detailed architecture description
  - using pretrained model
- stages: you can configure training or inference in several stages with different hyperparameters. In our example:
  - optimizer params
  - first learn the head(s), then train the whole network
The CONFIG_TEMPLATE with other experiment`s hyperparameters, such as data_params and is here: catalyst.segmentation/configs/templates/binary.yml. The config allows you to define:
- data_params: path, batch size, num of workers and so on
- callbacks_params: Callbacks are used to execute code during training, for example, to get metrics or save checkpoints. Catalyst provide wide variety of helpful callbacks also you can use custom.

You can find much more options for configuring experiments in catalyst documentation.

PyTorch framework for Deep Learning research and development.

Related tags

Overview

Catalyst.Segmentation

Goals

1. Install requirements

Using local environment:

Using docker:

2. Get Dataset

Try on open datasets

Use your own dataset

Data structure

Data location

3. Segmentation pipeline

Fast&Furious: raw data → production-ready model

Run in local environment:

Run in docker:

Run in local environment:

Run in docker:

Visualizations

4. Results

checkpoints

configs

logs

code

5. Customize own pipeline

Owner

Catalyst-Team

data/code repository of "C2F-FWN: Coarse-to-Fine Flow Warping Network for Spatial-Temporal Consistent Motion Transfer"

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Code for Fold2Seq paper from ICML 2021

Computational Methods Course at UdeA. Forked and size reduced from:

3D AffordanceNet is a 3D point cloud benchmark consisting of 23k shapes from 23 semantic object categories, annotated with 56k affordance annotations and covering 18 visual affordance categories.

Neural implicit reconstruction experiments for the Vector Neuron paper

K Closest Points and Maximum Clique Pruning for Efficient and Effective 3D Laser Scan Matching (To appear in RA-L 2022)

Continuous Conditional Random Field Convolution for Point Cloud Segmentation

Official implementation of "Watermarking Images in Self-Supervised Latent-Spaces"

Flask101 - FullStack Web Development with Python & JS - From TAQWA

AI-Fitness-Tracker - AI Fitness Tracker With Python

A reimplementation of DCGAN in PyTorch

“Robust Lightweight Facial Expression Recognition Network with Label Distribution Training”, AAAI 2021.

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DeepMetaHandles: Learning Deformation Meta-Handles of 3D Meshes with Biharmonic Coordinates

Joint Versus Independent Multiview Hashing for Cross-View Retrieval[J] (IEEE TCYB 2021, PyTorch Code)

The implementation of "Bootstrapping Semantic Segmentation with Regional Contrast".