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PytorchAutoDrive: Framework for self-driving perception

PytorchAutoDrive is a pure Python framework includes semantic segmentation models, lane detection models based on PyTorch. Here we provide full stack supports from research (model training, testing, fair benchmarking by simply writing configs) to application (visualization, model deployment).

Paper: Rethinking Efficient Lane Detection via Curve Modeling (CVPR 2022)

Poster: PytorchAutoDrive: Toolkit & Fair Benchmark for Autonomous Driving Research (PyTorch Developer Day 2021)

This repository is under active development, results with models uploaded are stable. For legacy code users, please check deprecations for changes.

A demo video from ERFNet:

demo_3.0.mp4

Highlights

Various methods on a wide range of backbones, config based implementations, modulated and easily understood codes, image/keypoint loading, transformations and visualizations, mixed precision training, tensorboard logging and deployment support with ONNX and TensorRT.

Models from this repo are faster to train (single card trainable) and often have better performance than other implementations, see wiki for reasons and technical specification of models.

Supported datasets:

Task Dataset
semantic segmentation PASCAL VOC 2012
semantic segmentation Cityscapes
semantic segmentation GTAV*
semantic segmentation SYNTHIA*
lane detection CULane
lane detection TuSimple
lane detection LLAMAS
lane detection BDD100K (In progress)

* The UDA baseline setup, with Cityscapes val set as validation.

Supported models:

Task Backbone Model/Method
semantic segmentation ResNet-101 FCN
semantic segmentation ResNet-101 DeeplabV2
semantic segmentation ResNet-101 DeeplabV3
semantic segmentation - ENet
semantic segmentation - ERFNet
lane detection ENet, ERFNet, VGG16, ResNets (18, 34, 50, 101), MobileNets (V2, V3-Large), RepVGGs (A0, A1, B0, B1g2, B2), Swin (Tiny) Baseline
lane detection ERFNet, VGG16, ResNets (18, 34, 50, 101), RepVGGs (A1) SCNN
lane detection ResNets (18, 34, 50, 101), MobileNets (V2, V3-Large) RESA
lane detection ERFNet, ENet SAD (Postponed)
lane detection ERFNet PRNet (In progress)
lane detection ResNets (18, 34, 50, 101), ResNet18-reduced LSTR
lane detection ResNets (18, 34) BézierLaneNet

Model Zoo

We provide solid results (average/best/detailed), training time, shell scripts and trained models available for download in MODEL_ZOO.md.

Installation

Please prepare the environment and code with INSTALL.md. Then follow the instructions in DATASET.md to set up datasets.

Getting Started

Get started with LANEDETECTION.md for lane detection.

Get started with SEGMENTATION.md for semantic segmentation.

Visualization Tools

Refer to VISUALIZATION.md for a visualization & inference tutorial, for image and video inputs.

Benchmark Tools

Refer to BENCHMARK.md for a benchmarking tutorial, including FPS test, FLOPs & memory count for each supported model.

Deployment

Refer to DEPLOY.md for ONNX and TensorRT deployment supports.

Advanced Tutorial

Checkout ADVANCED_TUTORIAL.md for advanced use cases and how to code in PytorchAutoDrive.

Contributing

Refer to CONTRIBUTING.md for contribution guides.

Citation

If you feel this framework substantially helped your research or you want a reference when using our results, please cite the following paper that made the official release of PytorchAutoDrive:

@inproceedings{feng2022rethinking,
  title={Rethinking efficient lane detection via curve modeling},
  author={Feng, Zhengyang and Guo, Shaohua and Tan, Xin and Xu, Ke and Wang, Min and Ma, Lizhuang},
  booktitle={Computer Vision and Pattern Recognition},
  year={2022}
}

Credits:

PytorchAutoDrive is maintained by Zhengyang Feng (VoldemortX) and Shaohua Guo (cedricgsh).

Community contributors (GitHub ID): kalkun

People who sponsored us with hardware: Junshu Tang (junshutang)