Evaluation of a multibody kinematics optimization method for three-dimensional canine pelvic limb gait analysis

Abstract Background Skin marker-based three-dimensional kinematic gait analysis were commonly used to assess the functional performance and movement biomechanics of the pelvic limb in dogs. Unfortunately, soft tissue artefact would compromise the accuracy of the reproduced pelvic limb kinematics. Mu...

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Main Authors: Cheng-Chung Lin, Ching-Ho Wu, Po-Yen Chou, Shi-Nuan Wang, Wei-Ru Hsu, Tung-Wu Lu
Format: Article
Language:English
Published: BMC 2020-04-01
Series:BMC Veterinary Research
Subjects:
Online Access:http://link.springer.com/article/10.1186/s12917-020-02323-5
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author Cheng-Chung Lin
Ching-Ho Wu
Po-Yen Chou
Shi-Nuan Wang
Wei-Ru Hsu
Tung-Wu Lu
author_facet Cheng-Chung Lin
Ching-Ho Wu
Po-Yen Chou
Shi-Nuan Wang
Wei-Ru Hsu
Tung-Wu Lu
author_sort Cheng-Chung Lin
collection DOAJ
description Abstract Background Skin marker-based three-dimensional kinematic gait analysis were commonly used to assess the functional performance and movement biomechanics of the pelvic limb in dogs. Unfortunately, soft tissue artefact would compromise the accuracy of the reproduced pelvic limb kinematics. Multibody kinematics optimization framework was often employed to compensate the soft tissue artefact for a more accurate description of human joint kinematics, but its performance on the determination of canine pelvic limb skeletal kinematics has never been evaluated. This study aimed to evaluate a multibody kinematics optimization framework used for the determination of canine pelvic limb kinematics during gait by comparing its results to those obtained using computed tomography model-based fluoroscopy analysis. Results Eight clinically normal dogs were enrolled in the study. Fluoroscopy videos of the stifle joint and skin marker trajectories were acquired when the dogs walked on a treadmill. The pelvic limb kinematics were reconstructed through marker-based multibody kinematics optimization and single-body optimization. The reference kinematics data were derived via a model-based fluoroscopy analysis. The use of multibody kinematics optimization yielded a significantly more accurate estimation of flexion/extension of the hip and stifle joints than the use of single-body optimization. The accuracy of the joint model parameters and the weightings to individual markers both influenced the soft tissue artefact compensation capability. Conclusions Multibody kinematics optimization designated for soft tissue artefact compensation was established and evaluated for its performance on canine gait analysis, which provided a further step in more accurately describing sagittal plane kinematics of the hip and stifle joints.
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spelling doaj.art-f2bf2d21c3d34bf2933fe95d3b1826b12022-12-22T01:59:16ZengBMCBMC Veterinary Research1746-61482020-04-011611910.1186/s12917-020-02323-5Evaluation of a multibody kinematics optimization method for three-dimensional canine pelvic limb gait analysisCheng-Chung Lin0Ching-Ho Wu1Po-Yen Chou2Shi-Nuan Wang3Wei-Ru Hsu4Tung-Wu Lu5Department of Electrical Engineering, Fu Jen Catholic UniversityInstitute of Veterinary Clinical Science, School of Veterinary Medicine, National Taiwan UniversityDepartment of Surgical and Radiological Science, School of Veterinary Medicine, University of California DavisInstitute of Veterinary Clinical Science, School of Veterinary Medicine, National Taiwan UniversityInstitute of Veterinary Clinical Science, School of Veterinary Medicine, National Taiwan UniversityDepartment of Biomedical Engineering and Department of Orthopedic Surgery, School of Medicine, National Taiwan UniversityAbstract Background Skin marker-based three-dimensional kinematic gait analysis were commonly used to assess the functional performance and movement biomechanics of the pelvic limb in dogs. Unfortunately, soft tissue artefact would compromise the accuracy of the reproduced pelvic limb kinematics. Multibody kinematics optimization framework was often employed to compensate the soft tissue artefact for a more accurate description of human joint kinematics, but its performance on the determination of canine pelvic limb skeletal kinematics has never been evaluated. This study aimed to evaluate a multibody kinematics optimization framework used for the determination of canine pelvic limb kinematics during gait by comparing its results to those obtained using computed tomography model-based fluoroscopy analysis. Results Eight clinically normal dogs were enrolled in the study. Fluoroscopy videos of the stifle joint and skin marker trajectories were acquired when the dogs walked on a treadmill. The pelvic limb kinematics were reconstructed through marker-based multibody kinematics optimization and single-body optimization. The reference kinematics data were derived via a model-based fluoroscopy analysis. The use of multibody kinematics optimization yielded a significantly more accurate estimation of flexion/extension of the hip and stifle joints than the use of single-body optimization. The accuracy of the joint model parameters and the weightings to individual markers both influenced the soft tissue artefact compensation capability. Conclusions Multibody kinematics optimization designated for soft tissue artefact compensation was established and evaluated for its performance on canine gait analysis, which provided a further step in more accurately describing sagittal plane kinematics of the hip and stifle joints.http://link.springer.com/article/10.1186/s12917-020-02323-5FluoroscopyGait analysisKinematicsLocomotionMultibody kinematics optimizationSoft tissue artefact
spellingShingle Cheng-Chung Lin
Ching-Ho Wu
Po-Yen Chou
Shi-Nuan Wang
Wei-Ru Hsu
Tung-Wu Lu
Evaluation of a multibody kinematics optimization method for three-dimensional canine pelvic limb gait analysis
BMC Veterinary Research
Fluoroscopy
Gait analysis
Kinematics
Locomotion
Multibody kinematics optimization
Soft tissue artefact
title Evaluation of a multibody kinematics optimization method for three-dimensional canine pelvic limb gait analysis
title_full Evaluation of a multibody kinematics optimization method for three-dimensional canine pelvic limb gait analysis
title_fullStr Evaluation of a multibody kinematics optimization method for three-dimensional canine pelvic limb gait analysis
title_full_unstemmed Evaluation of a multibody kinematics optimization method for three-dimensional canine pelvic limb gait analysis
title_short Evaluation of a multibody kinematics optimization method for three-dimensional canine pelvic limb gait analysis
title_sort evaluation of a multibody kinematics optimization method for three dimensional canine pelvic limb gait analysis
topic Fluoroscopy
Gait analysis
Kinematics
Locomotion
Multibody kinematics optimization
Soft tissue artefact
url http://link.springer.com/article/10.1186/s12917-020-02323-5
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