CZU-MHAD: A multimodal dataset for human action recognition utilizing a depth camera and 10 wearable inertial sensors

Overview

CZU-MHAD: A multimodal dataset for human action recognition utilizing a depth camera and 10 wearable inertial sensors

  In order to facilitate the research of multi-modal sensor fusion for human action recognition, this paper provides a multi-modal human action dataset using Kinect depth camera and multile wearable sensors, which is called Changzhou University multi-modal human action dataset (CZU-MHAD). Our dataset contains more wearable sensors, which aims to obtain the position data of human skeleton joints, as well as 3-axis acceleration and 3-axis angular velocity data of corresponding joints. Our dataset provides time synchronous depth video, skeleton joint position, 3-axis acceleration and 3-axis angular velocity data to describe a complete human action.

1. Sensors

  The CZU-MHAD uses 1 Microsoft Kinect V2 and 10 wearable sensors MPU9250. These two kinds of sensors are widely used, which have the characteristics of low power consumption, low cost and simple operation. In addition, it does not require too much computing power to process the data collected by the two kind sensors in real time.

1.1 Kinect v2

  The above picture is the Microsoft Kinect V2, which can collect both color and depth images at a sampling frequency of 30 frames per second. Kinect SDK is a software package provided by Microsoft, which can be used to track 25 skeleton joint points and their 3D spatial positions. You can download the Kinect SDK in https://www.microsoft.com/en-us/download/details.aspx?id=44561.

  The above image shows 25 skeleton joint points of the human body that Kinect V2 can track.

1.2 MPU9250

  The MPU9250 can capture 3-axis acceleration, 3-axis angular velocity and 3-axis magnetic intensity.

  • The measurement range of MPU9250:
    • the measurement range of accelerometer is ±16g;
    • the measurement range of angular velocity of the gyroscope is ±2000 degrees/second.

  CZU-MHAD uses Raspberry PI to interact with MPU9250 through the integrated circuit bus (IIC) interface, realizing the functions of reading, saving and uploading MPU9250 sensor data to the server.The connection between Raspberry PI and MPU9250 is shown in picture.

  You can visit https://projects.raspberrypi.org/en/projects/raspberry-pi-setting-up to learn more about Raspberry PI.

2. Data Acquisition System Architecture

  This section introduces the data acquisition system of CZU-MHAD dataset. CZU-MHAD uses Kinect V2 sensor to collect depth image and joint position data, and uses MPU9250 sensor to collect 3-axis acceleration data and 3-axis angular velocity data. In order to collect the 3-axis acceleration data and the 3-axis angular velocity data of the whole body, a motion data acquisition system including 10 MPU9250 sensors is built-in this paper. The sampling system architecture is shown in following picture.

  The MPU9250 sensor is controlled by Raspberry PI, Kinect V2 is controlled by a notebook computer, and time synchronization with a NTP server is carried out every time data is collected. After considering the sampling scheme of MHAD and UTD-MHAD, the position of wearable sensors is determined as shown in the following picture.

  The points marked in red in the figure are the positions of inertial sensors, the left in the figure is the left side of the human body, and the right in the figure is the right side of the human body.

3. Information for "CZU-MHAD" dataset.

  The CZU-MHAD dataset contains 22 actions performed by 5 subjects (5 males). Each subject repeated each action >8 times. The CZU-MHAD dataset contains a total of >880 samples. The 22 actions performed are listed in Table. It can be seen that CZU-MHAD includes common gestures (such as Draw fork, Draw circle),daily activities (such as Sur Place, Clap, Bend down), and training actions (such as Left body turning movement, Left lateral movement).

Describe different actions in English:

ID Action name ID Action name ID Action name ID Action name
1 Right high wave 7 Draw fork with right hand 13 Right foot kick side 19 Left body turning movement
2 Left high wave 8 Draw fork with left hand 14 Left foot kick side 20 Right body turning movement
3 Right horizontal wave 9 Draw circle with right hand 15 Clap 21 Left lateral movement
4 Left horizontal wave 10 Draw circle with left hand 16 Bend down 22 Right lateral movement
5 Hammer with right hand 11 Right foot kick foward 17 Wave up and down
6 Grasp with right hand 12 Left foot kick foward 18 Sur Place

Describe different actions in Chinese::

ID Action name ID Action name ID Action name ID Action name
1 右高挥手 7 右手画× 13 右脚侧踢 19 左体转
2 左高挥手 8 左手画× 14 左脚侧踢 20 右体转
3 右水平挥手 9 右手画○ 15 拍手 21 左体侧
4 左水平挥手 10 左手画○ 16 弯腰 22 右体侧
5 锤(右手) 11 右脚前踢 17 上下挥手
6 抓(右手) 12 左脚前踢 18 原地踏步

4. How to download the dataset

   We offer one way to download our CZU-MHAD dataset:

  1. BaiduDisk(百度网盘)

    (Link) 链接:https://pan.baidu.com/s/1SBy0D2f1ZoX_mDyd3YEp2Q
    (Code) 提取码:qsq1

  In the CZU-MHAD, you will see three subfolders:

  • depth_mat

       The depth_mat contains the depth images captured by Kinect V2. In this folder, each file represents an action sample. Each file is named by the subject's name, the category label of the action and the time of each action of each subject. Take cyy_a1_t1.mat as an example, cyy is the subject's name, a1 is the name of the action, t1 stands the first time to perform this action. How to read data is shown in our sample code.

  • sensors_mat

       The sensors_mat contains the data of 3-axis acceleration and 3-axis angular velocity captured by MPU9250. In this folder, each file represents an action sample. Each file is named by the subject's name, the category label of the action and the time of each action of each subject. Take cyy_a1_t1.mat as an example, cyy is the subject's name, a1 is the name of the action, t1 stands the first time to perform this action. How to read data is shown in our sample code.

  • skeleton_mat

       The skeleton_mat contains the position data of skeleton joint points captured by Kinect V2. In this folder, each file represents an action sample. Each file is named by the subject's name, the category label of the action and the time of each action of each subject. Take cyy_a1_t1.mat as an example, cyy is the subject's name, a1 is the name of the action, t1 stands the first time to perform this action. How to read data is shown in our sample code.

5. Sample codes

  1. BaiduDisk(百度网盘)

    (Link) 链接:https://pan.baidu.com/s/1bWq7ypygjTffkor1GAExMQ

    (Code) 提取码:limf

6. Citation

To use our dataset, please refer to the following paper:

  • Mo Yujian, Hou Zhenjie, Chang Xingzhi, Liang Jiuzhen, Chen Chen, Huan Juan. Structural feature representation and fusion of behavior recognition oriented human spatial cooperative motion[J]. Journal of Beijing University of Aeronautics and Astronautics,2019,(12):2495-2505.

7. Mailing List

  If you are interested to recieve news, updates, and future events about this dataset, please email me.

#. Thanks(致谢)

  1. Cui Yaoyao(崔瑶瑶)
  2. Chao Xin(巢新)
  3. Qin Yinhua(秦银华)
  4. Zhang Yuheng(张宇恒)
  5. Mo Yujian(莫宇剑)

#. Gao Liang(高亮)

#. Shi Yuhang(石宇航)

  The subjects marked with '#' also participated in our data collection process. However, due to the unstable power supply and abnormal heat dissipation of Raspberry PI, their behavior data is abnormal. Therefore, we do not provide their data.

You might also like...
Official PyTorch implementation of
Official PyTorch implementation of "IntegralAction: Pose-driven Feature Integration for Robust Human Action Recognition in Videos", CVPRW 2021

IntegralAction: Pose-driven Feature Integration for Robust Human Action Recognition in Videos Introduction This repo is official PyTorch implementatio

Python script for performing depth completion from sparse depth and rgb images using the msg_chn_wacv20. model in ONNX
Python script for performing depth completion from sparse depth and rgb images using the msg_chn_wacv20. model in ONNX

ONNX msg_chn_wacv20 depth completion Python script for performing depth completion from sparse depth and rgb images using the msg_chn_wacv20 model in

Python script for performing depth completion from sparse depth and rgb images using the msg_chn_wacv20. model in Tensorflow Lite.
Python script for performing depth completion from sparse depth and rgb images using the msg_chn_wacv20. model in Tensorflow Lite.

TFLite-msg_chn_wacv20-depth-completion Python script for performing depth completion from sparse depth and rgb images using the msg_chn_wacv20. model

Info and sample codes for "NTU RGB+D Action Recognition Dataset"

"NTU RGB+D" Action Recognition Dataset "NTU RGB+D 120" Action Recognition Dataset "NTU RGB+D" is a large-scale dataset for human action recognition. I

LVI-SAM: Tightly-coupled Lidar-Visual-Inertial Odometry via Smoothing and Mapping
LVI-SAM: Tightly-coupled Lidar-Visual-Inertial Odometry via Smoothing and Mapping

LVI-SAM This repository contains code for a lidar-visual-inertial odometry and mapping system, which combines the advantages of LIO-SAM and Vins-Mono

A real-time motion capture system that estimates poses and global translations using only 6 inertial measurement units
A real-time motion capture system that estimates poses and global translations using only 6 inertial measurement units

TransPose Code for our SIGGRAPH 2021 paper "TransPose: Real-time 3D Human Translation and Pose Estimation with Six Inertial Sensors". This repository

 COVINS -- A Framework for Collaborative Visual-Inertial SLAM and Multi-Agent 3D Mapping
COVINS -- A Framework for Collaborative Visual-Inertial SLAM and Multi-Agent 3D Mapping

COVINS -- A Framework for Collaborative Visual-Inertial SLAM and Multi-Agent 3D Mapping Version 1.0 COVINS is an accurate, scalable, and versatile vis

Monocular Depth Estimation - Weighted-average prediction from multiple pre-trained depth estimation models
Monocular Depth Estimation - Weighted-average prediction from multiple pre-trained depth estimation models

merged_depth runs (1) AdaBins, (2) DiverseDepth, (3) MiDaS, (4) SGDepth, and (5) Monodepth2, and calculates a weighted-average per-pixel absolute dept

The implemention of Video Depth Estimation by Fusing Flow-to-Depth Proposals

Flow-to-depth (FDNet) video-depth-estimation This is the implementation of paper Video Depth Estimation by Fusing Flow-to-Depth Proposals Jiaxin Xie,

Releases(skeleton)
Owner
yujmo
帅气,阳光,灿烂,美丽,大方
yujmo
High performance Cross-platform Inference-engine, you could run Anakin on x86-cpu,arm, nv-gpu, amd-gpu,bitmain and cambricon devices.

Anakin2.0 Welcome to the Anakin GitHub. Anakin is a cross-platform, high-performance inference engine, which is originally developed by Baidu engineer

514 Dec 28, 2022
Python Tensorflow 2 scripts for detecting objects of any class in an image without knowing their label.

Tensorflow-Mobile-Generic-Object-Localizer Python Tensorflow 2 scripts for detecting objects of any class in an image without knowing their label. Ori

Ibai Gorordo 11 Nov 15, 2022
Semi-Autoregressive Transformer for Image Captioning

Semi-Autoregressive Transformer for Image Captioning Requirements Python 3.6 Pytorch 1.6 Prepare data Please use git clone --recurse-submodules to clo

YE Zhou 23 Dec 09, 2022
ShapeGlot: Learning Language for Shape Differentiation

ShapeGlot: Learning Language for Shape Differentiation Created by Panos Achlioptas, Judy Fan, Robert X.D. Hawkins, Noah D. Goodman, Leonidas J. Guibas

Panos 32 Dec 23, 2022
Generalized Proximal Policy Optimization with Sample Reuse (GePPO)

Generalized Proximal Policy Optimization with Sample Reuse This repository is the official implementation of the reinforcement learning algorithm Gene

Jimmy Queeney 9 Nov 28, 2022
TCTrack: Temporal Contexts for Aerial Tracking (CVPR2022)

TCTrack: Temporal Contexts for Aerial Tracking (CVPR2022) Ziang Cao and Ziyuan Huang and Liang Pan and Shiwei Zhang and Ziwei Liu and Changhong Fu In

Intelligent Vision for Robotics in Complex Environment 100 Dec 19, 2022
A Python library for differentiable optimal control on accelerators.

A Python library for differentiable optimal control on accelerators.

Google 80 Dec 21, 2022
Code for the TASLP paper "PSLA: Improving Audio Tagging With Pretraining, Sampling, Labeling, and Aggregation".

PSLA: Improving Audio Tagging with Pretraining, Sampling, Labeling, and Aggregation Introduction Getting Started FSD50K Recipe AudioSet Recipe Label E

Yuan Gong 84 Dec 27, 2022
Novel and high-performance medical image classification pipelines are heavily utilizing ensemble learning strategies

An Analysis on Ensemble Learning optimized Medical Image Classification with Deep Convolutional Neural Networks Novel and high-performance medical ima

14 Dec 18, 2022
Supervised & unsupervised machine-learning techniques are applied to the database of weighted P4s which admit Calabi-Yau hypersurfaces.

Weighted Projective Spaces ML Description: The database of 5-vectors describing 4d weighted projective spaces which admit Calabi-Yau hypersurfaces are

Ed Hirst 3 Sep 08, 2022
Trajectory Prediction with Graph-based Dual-scale Context Fusion

DSP: Trajectory Prediction with Graph-based Dual-scale Context Fusion Introduction This is the project page of the paper Lu Zhang, Peiliang Li, Jing C

HKUST Aerial Robotics Group 103 Jan 04, 2023
This game was designed to encourage young people not to gamble on lotteries, as the probablity of correctly guessing the number is infinitesimal!

Lottery Simulator 2022 for Web Launch Application Developed by John Seong in Ontario. This game was designed to encourage young people not to gamble o

John Seong 2 Sep 02, 2022
tf2onnx - Convert TensorFlow, Keras and Tflite models to ONNX.

tf2onnx converts TensorFlow (tf-1.x or tf-2.x), tf.keras and tflite models to ONNX via command line or python api.

Open Neural Network Exchange 1.8k Jan 08, 2023
This is an open solution to the Home Credit Default Risk challenge 🏡

Home Credit Default Risk: Open Solution This is an open solution to the Home Credit Default Risk challenge 🏡 . More competitions 🎇 Check collection

minerva.ml 427 Dec 27, 2022
N-HiTS: Neural Hierarchical Interpolation for Time Series Forecasting

N-HiTS: Neural Hierarchical Interpolation for Time Series Forecasting Recent progress in neural forecasting instigated significant improvements in the

Cristian Challu 82 Jan 04, 2023
Attention Probe: Vision Transformer Distillation in the Wild

Attention Probe: Vision Transformer Distillation in the Wild Jiahao Wang, Mingdeng Cao, Shuwei Shi, Baoyuan Wu, Yujiu Yang In ICASSP 2022 This code is

Wang jiahao 3 Oct 31, 2022
AI that generate music

PianoGPT ai that generate music try it here https://share.streamlit.io/annasajkh/pianogpt/main/main.py or here https://huggingface.co/spaces/Annas/Pia

Annas 28 Nov 27, 2022
PyTorch implementation of Trust Region Policy Optimization

PyTorch implementation of TRPO Try my implementation of PPO (aka newer better variant of TRPO), unless you need to you TRPO for some specific reasons.

Ilya Kostrikov 366 Nov 15, 2022
Development of IP code based on VIPs and AADM

Sparse Implicit Processes In this repository we include the two different versions of the SIP code developed for the article Sparse Implicit Processes

1 Aug 22, 2022
PyTorch implementation for the ICLR 2020 paper "Understanding the Limitations of Variational Mutual Information Estimators"

Smoothed Mutual Information ``Lower Bound'' Estimator PyTorch implementation for the ICLR 2020 paper Understanding the Limitations of Variational Mutu

50 Nov 09, 2022