The official implementation code of "PlantStereo: A Stereo Matching Benchmark for Plant Surface Dense Reconstruction."

Overview

PlantStereo

This is the official implementation code for the paper "PlantStereo: A Stereo Matching Benchmark for Plant Surface Dense Reconstruction".

Paper

PlantStereo: A Stereo Matching Benchmark for Plant Surface Dense Reconstruction[preprint]

Qingyu Wang, Baojian Ma, Wei Liu, Mingzhao Lou, Mingchuan Zhou*, Huanyu Jiang and Yibin Ying

College of Biosystems Engineering and Food Science, Zhejiang University.

Example and Overview

We give an example of our dataset, including spinach, tomato, pepper and pumpkin.

The data size and the resolution of the images are listed as follows:

Subset Train Validation Test All Resolution
Spinach 160 40 100 300 1046×606
Tomato 80 20 50 150 1040×603
Pepper 150 30 32 212 1024×571
Pumpkin 80 20 50 150 1024×571
All 470 110 232 812

Analysis

We evaluated the disparity distribution of different stereo matching datasets.

Format

The data was organized as the following format, where the sub-pixel level disparity images are saved as .tiff format, and the pixel level disparity images are saved as .png format.

PlantStereo

├── PlantStereo2021

│          ├── tomato

│          │          ├── training

│          │          │         ├── left_view

│          │          │          │         ├── 000000.png

│          │          │          │         ├── 000001.png

│          │          │          │         ├── ......

│          │          │          ├── right_view

│          │          │          │         ├── ......

│          │          │          ├── disp

│          │          │          │         ├── ......

│          │          │          ├── disp_high_acc

│          │          │          │         ├── 000000.tiff

│          │          │          │         ├── ......

│          │          ├── testing

│          │          │          ├── left_view

│          │          │          ├── right_view

│          │          │          ├── disp

│          │          │          ├── disp_high_acc

│          ├── spinach

│          ├── ......

Download

You can use the following links to download out PlantStereo dataset.

Baidu Netdisk link
Google Drive link

Usage

  • sample.py

To construct the dataset, you can run the code in sample.py in your terminal:

conda activate <your_anaconda_virtual_environment>
python sample.py --num 0

We can registrate the image and transformate the coordinate through function mech_zed_alignment():

def mech_zed_alignment(depth, mech_height, mech_width, zed_height, zed_width):
    ground_truth = np.zeros(shape=(zed_height, zed_width), dtype=float)
    for v in range(0, mech_height):
        for u in range(0, mech_width):
            i_mech = np.array([[u], [v], [1]], dtype=float)  # 3*1
            p_i_mech = np.dot(np.linalg.inv(K_MECH), i_mech * depth[v, u])  # 3*1
            p_i_zed = np.dot(R_MECH_ZED, p_i_mech) + T_MECH_ZED  # 3*1
            i_zed = np.dot(K_ZED_LEFT, p_i_zed) * (1 / p_i_zed[2])  # 3*1
            disparity = ZED_BASELINE * ZED_FOCAL_LENGTH * 1000 / p_i_zed[2]
            u_zed = i_zed[0]
            v_zed = i_zed[1]
            coor_u_zed = round(u_zed[0])
            coor_v_zed = round(v_zed[0])
            if coor_u_zed < zed_width and coor_v_zed < zed_height:
                ground_truth[coor_v_zed][coor_u_zed] = disparity
    return ground_truth
  • epipole_rectification.py

    After collecting the left, right and disparity images throuth sample.py, we can perform epipole rectification on left and right images through epipole_rectification.py:

    python epipole_rectification.py

Citation

If you use our PlantStereo dataset in your research, please cite this publication:

@misc{PlantStereo,
    title={PlantStereo: A Stereo Matching Benchmark for Plant Surface Dense Reconstruction},
    author={Qingyu Wang, Baojian Ma, Wei Liu, Mingzhao Lou, Mingchuan Zhou, Huanyu Jiang and Yibin Ying},
    howpublished = {\url{https://github.com/wangqingyu985/PlantStereo}},
    year={2021}
}

Acknowledgements

This project is mainly based on:

zed-python-api

mecheye_python_interface

Contact

If you have any questions, please do not hesitate to contact us through E-mail or issue, we will reply as soon as possible.

[email protected] or [email protected]

Owner
Wang Qingyu
A second-year Ph.D. student in Zhejiang University
Wang Qingyu
TargetAllDomainObjects - A python wrapper to run a command on against all users/computers/DCs of a Windows Domain

TargetAllDomainObjects A python wrapper to run a command on against all users/co

Podalirius 19 Dec 13, 2022
Automatic learning-rate scheduler

AutoLRS This is the PyTorch code implementation for the paper AutoLRS: Automatic Learning-Rate Schedule by Bayesian Optimization on the Fly published

Yuchen Jin 33 Nov 18, 2022
Gesture-controlled Video Game. Just swing your finger and play the game without touching your PC

Gesture Controlled Video Game Detailed Blog : https://www.analyticsvidhya.com/blog/2021/06/gesture-controlled-video-game/ Introduction This project is

Devbrat Anuragi 35 Jan 06, 2023
Implementation for Panoptic-PolarNet (CVPR 2021)

Panoptic-PolarNet This is the official implementation of Panoptic-PolarNet. [ArXiv paper] Introduction Panoptic-PolarNet is a fast and robust LiDAR po

Zixiang Zhou 126 Jan 01, 2023
FLSim a flexible, standalone library written in PyTorch that simulates FL settings with a minimal, easy-to-use API

Federated Learning Simulator (FLSim) is a flexible, standalone core library that simulates FL settings with a minimal, easy-to-use API. FLSim is domain-agnostic and accommodates many use cases such a

Meta Research 162 Jan 02, 2023
Self-driving car env with PPO algorithm from stable baseline3

Self-driving car with RL stable baseline3 Most of the project develop from https://github.com/GerardMaggiolino/Gym-Medium-Post Please check it out! Th

Sornsiri.P 7 Dec 22, 2022
[ICCV 2021] Learning A Single Network for Scale-Arbitrary Super-Resolution

ArbSR Pytorch implementation of "Learning A Single Network for Scale-Arbitrary Super-Resolution", ICCV 2021 [Project] [arXiv] Highlights A plug-in mod

Longguang Wang 229 Dec 30, 2022
Code of paper Interact, Embed, and EnlargE (IEEE): Boosting Modality-specific Representations for Multi-Modal Person Re-identification.

Interact, Embed, and EnlargE (IEEE): Boosting Modality-specific Representations for Multi-Modal Person Re-identification We provide the codes for repr

12 Dec 12, 2022
A boosting-based Multiple Instance Learning (MIL) package that includes MIL-Boost and MCIL-Boost

A boosting-based Multiple Instance Learning (MIL) package that includes MIL-Boost and MCIL-Boost

Jun-Yan Zhu 27 Aug 08, 2022
DrNAS: Dirichlet Neural Architecture Search

This paper proposes a novel differentiable architecture search method by formulating it into a distribution learning problem. We treat the continuously relaxed architecture mixing weight as random va

Xiangning Chen 37 Jan 03, 2023
Planning from Pixels in Environments with Combinatorially Hard Search Spaces -- NeurIPS 2021

PPGS: Planning from Pixels in Environments with Combinatorially Hard Search Spaces Environment Setup We recommend pipenv for creating and managing vir

Autonomous Learning Group 11 Jun 26, 2022
Interpretation of T cell states using reference single-cell atlases

Interpretation of T cell states using reference single-cell atlases ProjecTILs is a computational method to project scRNA-seq data into reference sing

Cancer Systems Immunology Lab 139 Jan 03, 2023
Official PyTorch implementation of Synergies Between Affordance and Geometry: 6-DoF Grasp Detection via Implicit Representations

Synergies Between Affordance and Geometry: 6-DoF Grasp Detection via Implicit Representations Zhenyu Jiang, Yifeng Zhu, Maxwell Svetlik, Kuan Fang, Yu

UT-Austin Robot Perception and Learning Lab 63 Jan 03, 2023
An NVDA add-on to split screen reader and audio from other programs to different sound channels

An NVDA add-on to split screen reader and audio from other programs to different sound channels (add-on idea credit: Tony Malykh)

Joseph Lee 7 Dec 25, 2022
Unofficial implementation of Google's FNet: Mixing Tokens with Fourier Transforms

FNet: Mixing Tokens with Fourier Transforms Pytorch implementation of Fnet : Mixing Tokens with Fourier Transforms. Citation: @misc{leethorp2021fnet,

Rishikesh (ऋषिकेश) 218 Jan 05, 2023
ChainerRL is a deep reinforcement learning library built on top of Chainer.

ChainerRL and PFRL ChainerRL (this repository) is a deep reinforcement learning library that implements various state-of-the-art deep reinforcement al

Chainer 1.1k Jan 01, 2023
LSTM and QRNN Language Model Toolkit for PyTorch

LSTM and QRNN Language Model Toolkit This repository contains the code used for two Salesforce Research papers: Regularizing and Optimizing LSTM Langu

Salesforce 1.9k Jan 08, 2023
This project contains an implemented version of Face Detection using OpenCV and Mediapipe. This is a code snippet and can be used in projects.

Live-Face-Detection Project Description: In this project, we will be using the live video feed from the camera to detect Faces. It will also detect so

Hassan Shahzad 3 Oct 02, 2021
An implementation of a discriminant function over a normal distribution to help classify datasets.

CS4044D Machine Learning Assignment 1 By Dev Sony, B180297CS The question, report and source code can be found here. Github Repo Solution 1 Based on t

Dev Sony 6 Nov 09, 2021
Exploration of some patients clinical variables.

Answer_ALS_clinical_data Exploration of some patients clinical variables. All the clinical / metadata data is available here: https://data.answerals.o

1 Jan 20, 2022