Unofficial PyTorch implementation of "RTM3D: Real-time Monocular 3D Detection from Object Keypoints for Autonomous Driving" (ECCV 2020)

Overview

RTM3D-PyTorch

python-image pytorch-image

The PyTorch Implementation of the paper: RTM3D: Real-time Monocular 3D Detection from Object Keypoints for Autonomous Driving (ECCV 2020)


Demonstration

demo

Features

  • Realtime 3D object detection based on a monocular RGB image
  • Support distributed data parallel training
  • Tensorboard
  • ResNet-based Keypoint Feature Pyramid Network (KFPN) (Using by setting --arch fpn_resnet_18)
  • Use images from both left and right cameras (Control by setting the use_left_cam_prob argument)
  • Release pre-trained models

Some modifications from the paper

  • Formula (3):

    • A negative value can't be an input of the log operator, so please don't normalize dim as mentioned in the paper because the normalized dim values maybe less than 0. Hence I've directly regressed to absolute dimension values in meters.
    • Use L1 loss for depth estimation (applying the sigmoid activation to the depth output first).
  • Formula (5): I haven't taken the absolute values of the ground-truth, I have used the relative values instead. The code is here

  • Formula (7): argmin instead of argmax

  • Generate heatmap for the center and vertexes of objects as the CenterNet paper. If you want to use the strategy from RTM3D paper, you can pass the dynamic-sigma argument to the train.py script.

2. Getting Started

2.1. Requirement

pip install -U -r requirements.txt

2.2. Data Preparation

Download the 3D KITTI detection dataset from here.

The downloaded data includes:

  • Training labels of object data set (5 MB)
  • Camera calibration matrices of object data set (16 MB)
  • Left color images of object data set (12 GB)
  • Right color images of object data set (12 GB)

Please make sure that you construct the source code & dataset directories structure as below.

2.3. RTM3D architecture

architecture

The model takes only the RGB images as the input and outputs the main center heatmap, vertexes heatmap, and vertexes coordinate as the base module to estimate 3D bounding box.

2.4. How to run

2.4.1. Visualize the dataset

cd src/data_process
  • To visualize camera images with 3D boxes, let's execute:
python kitti_dataset.py

Then Press n to see the next sample >>> Press Esc to quit...

2.4.2. Inference

Download the trained model from here (will be released), then put it to ${ROOT}/checkpoints/ and execute:

python test.py --gpu_idx 0 --arch resnet_18 --pretrained_path ../checkpoints/rtm3d_resnet_18.pth

2.4.3. Evaluation

python evaluate.py --gpu_idx 0 --arch resnet_18 --pretrained_path <PATH>

2.4.4. Training

2.4.4.1. Single machine, single gpu
python train.py --gpu_idx 0 --arch <ARCH> --batch_size <N> --num_workers <N>...
2.4.4.2. Multi-processing Distributed Data Parallel Training

We should always use the nccl backend for multi-processing distributed training since it currently provides the best distributed training performance.

  • Single machine (node), multiple GPUs
python train.py --dist-url 'tcp://127.0.0.1:29500' --dist-backend 'nccl' --multiprocessing-distributed --world-size 1 --rank 0
  • Two machines (two nodes), multiple GPUs

First machine

python train.py --dist-url 'tcp://IP_OF_NODE1:FREEPORT' --dist-backend 'nccl' --multiprocessing-distributed --world-size 2 --rank 0

Second machine

python train.py --dist-url 'tcp://IP_OF_NODE2:FREEPORT' --dist-backend 'nccl' --multiprocessing-distributed --world-size 2 --rank 1

To reproduce the results, you can run the bash shell script

./train.sh

Tensorboard

  • To track the training progress, go to the logs/ folder and
cd logs/<saved_fn>/tensorboard/
tensorboard --logdir=./

Contact

If you think this work is useful, please give me a star!
If you find any errors or have any suggestions, please contact me (Email: [email protected]).
Thank you!

Citation

@article{RTM3D,
  author = {Peixuan Li,  Huaici Zhao, Pengfei Liu, Feidao Cao},
  title = {RTM3D: Real-time Monocular 3D Detection from Object Keypoints for Autonomous Driving},
  year = {2020},
  conference = {ECCV 2020},
}
@misc{RTM3D-PyTorch,
  author =       {Nguyen Mau Dung},
  title =        {{RTM3D-PyTorch: PyTorch Implementation of the RTM3D paper}},
  howpublished = {\url{https://github.com/maudzung/RTM3D-PyTorch}},
  year =         {2020}
}

References

[1] CenterNet: Objects as Points paper, PyTorch Implementation

Folder structure

${ROOT}
└── checkpoints/    
    ├── rtm3d_resnet_18.pth
    ├── rtm3d_fpn_resnet_18.pth
└── dataset/    
    └── kitti/
        ├──ImageSets/
        │   ├── test.txt
        │   ├── train.txt
        │   └── val.txt
        ├── training/
        │   ├── image_2/ (left color camera)
        │   ├── image_3/ (right color camera)
        │   ├── calib/
        │   ├── label_2/
        └── testing/  
        │   ├── image_2/ (left color camera)
        │   ├── image_3/ (right color camera)
        │   ├── calib/
        └── classes_names.txt
└── src/
    ├── config/
    │   ├── train_config.py
    │   └── kitti_config.py
    ├── data_process/
    │   ├── kitti_dataloader.py
    │   ├── kitti_dataset.py
    │   └── kitti_data_utils.py
    ├── models/
    │   ├── fpn_resnet.py
    │   ├── resnet.py
    │   ├── model_utils.py
    └── utils/
    │   ├── evaluation_utils.py
    │   ├── logger.py
    │   ├── misc.py
    │   ├── torch_utils.py
    │   ├── train_utils.py
    ├── evaluate.py
    ├── test.py
    ├── train.py
    └── train.sh
├── README.md 
└── requirements.txt

Usage

usage: train.py [-h] [--seed SEED] [--saved_fn FN] [--root-dir PATH]
                [--arch ARCH] [--pretrained_path PATH] [--head_conv HEAD_CONV]
                [--hflip_prob HFLIP_PROB]
                [--use_left_cam_prob USE_LEFT_CAM_PROB] [--dynamic-sigma]
                [--no-val] [--num_samples NUM_SAMPLES]
                [--num_workers NUM_WORKERS] [--batch_size BATCH_SIZE]
                [--print_freq N] [--tensorboard_freq N] [--checkpoint_freq N]
                [--start_epoch N] [--num_epochs N] [--lr_type LR_TYPE]
                [--lr LR] [--minimum_lr MIN_LR] [--momentum M] [-wd WD]
                [--optimizer_type OPTIMIZER] [--steps [STEPS [STEPS ...]]]
                [--world-size N] [--rank N] [--dist-url DIST_URL]
                [--dist-backend DIST_BACKEND] [--gpu_idx GPU_IDX] [--no_cuda]
                [--multiprocessing-distributed] [--evaluate]
                [--resume_path PATH] [--K K]

The Implementation of RTM3D using PyTorch

optional arguments:
  -h, --help            show this help message and exit
  --seed SEED           re-produce the results with seed random
  --saved_fn FN         The name using for saving logs, models,...
  --root-dir PATH       The ROOT working directory
  --arch ARCH           The name of the model architecture
  --pretrained_path PATH
                        the path of the pretrained checkpoint
  --head_conv HEAD_CONV
                        conv layer channels for output head0 for no conv
                        layer-1 for default setting: 64 for resnets and 256
                        for dla.
  --hflip_prob HFLIP_PROB
                        The probability of horizontal flip
  --use_left_cam_prob USE_LEFT_CAM_PROB
                        The probability of using the left camera
  --dynamic-sigma       If true, compute sigma based on Amax, Amin then
                        generate heamapIf false, compute radius as CenterNet
                        did
  --no-val              If true, dont evaluate the model on the val set
  --num_samples NUM_SAMPLES
                        Take a subset of the dataset to run and debug
  --num_workers NUM_WORKERS
                        Number of threads for loading data
  --batch_size BATCH_SIZE
                        mini-batch size (default: 16), this is the totalbatch
                        size of all GPUs on the current node when usingData
                        Parallel or Distributed Data Parallel
  --print_freq N        print frequency (default: 50)
  --tensorboard_freq N  frequency of saving tensorboard (default: 50)
  --checkpoint_freq N   frequency of saving checkpoints (default: 5)
  --start_epoch N       the starting epoch
  --num_epochs N        number of total epochs to run
  --lr_type LR_TYPE     the type of learning rate scheduler (cosin or
                        multi_step)
  --lr LR               initial learning rate
  --minimum_lr MIN_LR   minimum learning rate during training
  --momentum M          momentum
  -wd WD, --weight_decay WD
                        weight decay (default: 1e-6)
  --optimizer_type OPTIMIZER
                        the type of optimizer, it can be sgd or adam
  --steps [STEPS [STEPS ...]]
                        number of burn in step
  --world-size N        number of nodes for distributed training
  --rank N              node rank for distributed training
  --dist-url DIST_URL   url used to set up distributed training
  --dist-backend DIST_BACKEND
                        distributed backend
  --gpu_idx GPU_IDX     GPU index to use.
  --no_cuda             If true, cuda is not used.
  --multiprocessing-distributed
                        Use multi-processing distributed training to launch N
                        processes per node, which has N GPUs. This is the
                        fastest way to use PyTorch for either single node or
                        multi node data parallel training
  --evaluate            only evaluate the model, not training
  --resume_path PATH    the path of the resumed checkpoint
  --K K                 the number of top K
Owner
Nguyen Mau Dzung
M.Sc. in HCI & Robotics | Self-driving Car Engineer | Senior AI Engineer | Interested in 3D Computer Vision
Nguyen Mau Dzung
A PyTorch Image-Classification With AlexNet And ResNet50.

PyTorch 图像分类 依赖库的下载与安装 在终端中执行 pip install -r -requirements.txt 完成项目依赖库的安装 使用方式 数据集的准备 STL10 数据集 下载:STL-10 Dataset 存储位置:将下载后的数据集中 train_X.bin,train_y.b

FYH 4 Feb 22, 2022
A pytorch-based real-time segmentation model for autonomous driving

CFPNet: Channel-Wise Feature Pyramid for Real-Time Semantic Segmentation This project contains the Pytorch implementation for the proposed CFPNet: pap

342 Dec 22, 2022
Unofficial PyTorch implementation of MobileViT based on paper "MobileViT: Light-weight, General-purpose, and Mobile-friendly Vision Transformer".

MobileViT RegNet Unofficial PyTorch implementation of MobileViT based on paper MOBILEVIT: LIGHT-WEIGHT, GENERAL-PURPOSE, AND MOBILE-FRIENDLY VISION TR

Hong-Jia Chen 91 Dec 02, 2022
Repo for our ICML21 paper Unsupervised Learning of Visual 3D Keypoints for Control

Unsupervised Learning of Visual 3D Keypoints for Control [Project Website] [Paper] Boyuan Chen1, Pieter Abbeel1, Deepak Pathak2 1UC Berkeley 2Carnegie

Boyuan Chen 34 Jul 22, 2022
PEPit is a package enabling computer-assisted worst-case analyses of first-order optimization methods.

PEPit: Performance Estimation in Python This open source Python library provides a generic way to use PEP framework in Python. Performance estimation

Baptiste 53 Nov 16, 2022
Diverse Object-Scene Compositions For Zero-Shot Action Recognition

Diverse Object-Scene Compositions For Zero-Shot Action Recognition This repository contains the source code for the use of object-scene compositions f

7 Sep 21, 2022
Lepard: Learning Partial point cloud matching in Rigid and Deformable scenes

Lepard: Learning Partial point cloud matching in Rigid and Deformable scenes [Paper] Method overview 4DMatch Benchmark 4DMatch is a benchmark for matc

103 Jan 06, 2023
Multi-modal Vision Transformers Excel at Class-agnostic Object Detection

Multi-modal Vision Transformers Excel at Class-agnostic Object Detection

Muhammad Maaz 206 Jan 04, 2023
Fast, accurate and reliable software for algebraic CT reconstruction

KCT CBCT Fast, accurate and reliable software for algebraic CT reconstruction. This set of software tools includes OpenCL implementation of modern CT

Vojtěch Kulvait 4 Dec 14, 2022
Official Pytorch implementation of Meta Internal Learning

Official Pytorch implementation of Meta Internal Learning

10 Aug 24, 2022
This is the code for Deformable Neural Radiance Fields, a.k.a. Nerfies.

Deformable Neural Radiance Fields This is the code for Deformable Neural Radiance Fields, a.k.a. Nerfies. Project Page Paper Video This codebase conta

Google 1k Jan 09, 2023
Implementation of the paper All Labels Are Not Created Equal: Enhancing Semi-supervision via Label Grouping and Co-training

SemCo The official pytorch implementation of the paper All Labels Are Not Created Equal: Enhancing Semi-supervision via Label Grouping and Co-training

42 Nov 14, 2022
A Multi-modal Model Chinese Spell Checker Released on ACL2021.

ReaLiSe ReaLiSe is a multi-modal Chinese spell checking model. This the office code for the paper Read, Listen, and See: Leveraging Multimodal Informa

DaDa 106 Dec 29, 2022
CVPR2021: Temporal Context Aggregation Network for Temporal Action Proposal Refinement

Temporal Context Aggregation Network - Pytorch This repo holds the pytorch-version codes of paper: "Temporal Context Aggregation Network for Temporal

Zhiwu Qing 63 Sep 27, 2022
A CNN implementation using only numpy. Supports multidimensional images, stride, etc.

A CNN implementation using only numpy. Supports multidimensional images, stride, etc. Speed up due to heavy use of slicing and mathematical simplification..

2 Nov 30, 2021
Python library for loading and using triangular meshes.

Trimesh is a pure Python (2.7-3.4+) library for loading and using triangular meshes with an emphasis on watertight surfaces. The goal of the library i

Michael Dawson-Haggerty 2.2k Jan 07, 2023
AugMix: A Simple Data Processing Method to Improve Robustness and Uncertainty

AugMix Introduction We propose AugMix, a data processing technique that mixes augmented images and enforces consistent embeddings of the augmented ima

Google Research 876 Dec 17, 2022
Read number plates with https://platerecognizer.com/

HASS-plate-recognizer Read vehicle license plates with https://platerecognizer.com/ which offers free processing of 2500 images per month. You will ne

Robin 69 Dec 30, 2022
An essential implementation of BYOL in PyTorch + PyTorch Lightning

Essential BYOL A simple and complete implementation of Bootstrap your own latent: A new approach to self-supervised Learning in PyTorch + PyTorch Ligh

Enrico Fini 48 Sep 27, 2022
A lane detection integrated Real-time Instance Segmentation based on YOLACT (You Only Look At CoefficienTs)

Real-time Instance Segmentation and Lane Detection This is a lane detection integrated Real-time Instance Segmentation based on YOLACT (You Only Look

Jin 4 Dec 30, 2022