We are upgrading the repository! A content freeze is in effect until December 6th, 2024 - no new submissions will be accepted; however, all content already published will remain publicly available. Please reach out to repository@u.library.arizona.edu with your questions, or if you are a UA affiliate who needs to make content available soon. Note that any new user accounts created after September 22, 2024 will need to be recreated by the user in November after our migration is completed.
mmPose-FK: A Forward Kinematics Approach to Dynamic Skeletal Pose Estimation Using mmWave Radars
Name:
mmPose_FK__A_Forward_Kinematic ...
Size:
3.655Mb
Format:
PDF
Description:
Final Accepted Manuscript
Affiliation
Department of Electrical and Computer Engineering, The University of ArizonaDepartment of Biomedical Engineering, The University of Arizona
Department of Medicine, The University of Arizona
Issue Date
2024-01-05Keywords
Electrical and electronic engineeringInstrumentation
Forward Kinematics
mmWave Radars
Pose Estimation
Metadata
Show full item recordCitation
Hu, S., Cao, S., Toosizadeh, N., Barton, J., Hector, M. G., & Fain, M. J. (2024). mmPose-FK: A Forward Kinematics Approach to Dynamic Skeletal Pose Estimation Using mmWave Radars. IEEE Sensors Journal.Journal
IEEE Sensors JournalRights
© 2023 IEEE.Collection Information
This item from the UA Faculty Publications collection is made available by the University of Arizona with support from the University of Arizona Libraries. If you have questions, please contact us at repository@u.library.arizona.edu.Abstract
In this paper, we propose mmPose-FK, a novel millimeter wave (mmWave) radar-based pose estimation method that employs a dynamic forward kinematics (FK) approach to address the challenges posed by low resolution, specularity, and noise artifacts commonly associated with mmWave radars. These issues often result in unstable joint poses that vibrate over time, reducing the effectiveness of traditional pose estimation techniques. To overcome these limitations, we integrate the FK mechanism into the deep learning model and develop an end-to-end solution driven by data. Our comprehensive experiments using various matrices and benchmarks highlight the superior performance of mmPose-FK, especially when compared to our previous research methods. The proposed method provides more accurate pose estimation and ensures increased stability and consistency, which underscores the continuous improvement of our methodology, showcasing superior capabilities over its antecedents. Moreover, the model can output joint rotations and human bone lengths, which could be further utilized for various applications such as gait parameter analysis and height estimation. This makes mmPose-FK a highly promising solution for a wide range of applications in the field of human pose estimation and beyond.Note
Immediate accessISSN
1530-437XEISSN
1558-17482379-9153
Version
Final accepted manuscriptSponsors
National Institute of Biomedical Imaging and Bioengineeringae974a485f413a2113503eed53cd6c53
10.1109/jsen.2023.3348199