Keyword search (4,164 papers available)

"pose estimation" Keyword-tagged Publications:

Title Authors PubMed ID
1 Inferring concussion history in athletes using pose and ground reaction force estimation and stability analysis of plyometric exercise videos Alves W; Babouras A; Martineau PA; Schutt D; Robbins S; Fevens T; 40632382
ENCS
2 Deep neural network-based robotic visual servoing for satellite target tracking Ghiasvand S; Xie WF; Mohebbi A; 39440297
ENCS
3 Comparing novel smartphone pose estimation frameworks with the Kinect V2 for knee tracking during athletic stress tests Babouras A; Abdelnour P; Fevens T; Martineau PA; 38730186
ENCS

 

Title:Deep neural network-based robotic visual servoing for satellite target tracking
Authors:Ghiasvand SXie WFMohebbi A
Link:https://pubmed.ncbi.nlm.nih.gov/39440297/
DOI:10.3389/frobt.2024.1469315
Publication:Frontiers in robotics and AI
Keywords:deep learningdeep neural networkspose estimationrobot vision systemsvisual servoing
PMID:39440297 Category: Date Added:2024-10-23
Dept Affiliation: ENCS
1 Department of Mechanical, Industrial and Aerospace Engineering, Concordia University, Montréal, QC, Canada.
2 Department of Mechanical Engineering, Polytechnique Montréal, Montréal, QC, Canada.

Description:

In response to the costly and error-prone manual satellite tracking on the International Space Station (ISS), this paper presents a deep neural network (DNN)-based robotic visual servoing solution to the automated tracking operation. This innovative approach directly addresses the critical issue of motion decoupling, which poses a significant challenge in current image moment-based visual servoing. The proposed method uses DNNs to estimate the manipulator's pose, resulting in a significant reduction of coupling effects, which enhances control performance and increases tracking precision. Real-time experimental tests are carried out using a 6-DOF Denso manipulator equipped with an RGB camera and an object, mimicking the targeting pin. The test results demonstrate a 32.04% reduction in pose error and a 21.67% improvement in velocity precision compared to conventional methods. These findings demonstrate that the method has the potential to improve efficiency and accuracy significantly in satellite target tracking and capturing.





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