A robotic treadmill system to mimic overground walking training with body weight support

Body weight support overground walking training (BWSOWT) is widely used in gait rehabilitation. However, existing systems require large workspace, complex structure, and substantial installation cost for the actuator, which make those systems inappropriate for the clinical environment. For wide clin...

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Published inFrontiers in neurorobotics Vol. 17; p. 1089377
Main Authors Kim, Jongbum, Oh, Seunghue, Jo, Yongjin, Moon, James Hyungsup, Kim, Jonghyun
Format Journal Article
LanguageEnglish
Published Switzerland Frontiers Research Foundation 09.06.2023
Frontiers Media S.A
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ISSN1662-5218
1662-5218
DOI10.3389/fnbot.2023.1089377

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Abstract Body weight support overground walking training (BWSOWT) is widely used in gait rehabilitation. However, existing systems require large workspace, complex structure, and substantial installation cost for the actuator, which make those systems inappropriate for the clinical environment. For wide clinical use, the proposed system is based on a self-paced treadmill, and uses an optimized body weight support with frame-based two-wire mechanism. The Interactive treadmill was used to mimic overground walking. We opted the conventional DC motors to partially unload the body weight and modified pelvic type harness to allow natural pelvic motion. The performance of the proposed system on the measurement of anterior/posterior position, force control, and pelvic motion was evaluated with 8 healthy subjects during walking training. We verified that the proposed system was the cost/space-effective and showed the more accurate anterior/posterior position than motion sensor, comparable force control performance, and natural pelvic motion. The proposed system is cost/space effective, and able to mimic overground walking training with body weight support. In future work, we will improve the force control performance and optimize the training protocol for wide clinical use.
AbstractList Body weight support overground walking training (BWSOWT) is widely used in gait rehabilitation. However, existing systems require large workspace, complex structure, and substantial installation cost for the actuator, which make those systems inappropriate for the clinical environment. The proposed system is cost/space effective, and able to mimic overground walking training with body weight support. For wide clinical use, the proposed system is based on a self-paced treadmill, and uses an optimized body weight support with frame-based two-wire mechanism. The performance of the proposed system on the measurement of anterior/posterior position, force control, and pelvic motion was evaluated. The proposed system was evaluated with 8 healthy subjects during walking training, and the results showed the feasibility of the proposed system.
Body weight support overground walking training (BWSOWT) is widely used in gait rehabilitation. However, existing systems require large workspace, complex structure, and substantial installation cost for the actuator, which make those systems inappropriate for the clinical environment. For wide clinical use, the proposed system is based on a self-paced treadmill, and uses an optimized body weight support with frame-based two-wire mechanism.IntroductionBody weight support overground walking training (BWSOWT) is widely used in gait rehabilitation. However, existing systems require large workspace, complex structure, and substantial installation cost for the actuator, which make those systems inappropriate for the clinical environment. For wide clinical use, the proposed system is based on a self-paced treadmill, and uses an optimized body weight support with frame-based two-wire mechanism.The Interactive treadmill was used to mimic overground walking. We opted the conventional DC motors to partially unload the body weight and modified pelvic type harness to allow natural pelvic motion. The performance of the proposed system on the measurement of anterior/posterior position, force control, and pelvic motion was evaluated with 8 healthy subjects during walking training.MethodThe Interactive treadmill was used to mimic overground walking. We opted the conventional DC motors to partially unload the body weight and modified pelvic type harness to allow natural pelvic motion. The performance of the proposed system on the measurement of anterior/posterior position, force control, and pelvic motion was evaluated with 8 healthy subjects during walking training.We verified that the proposed system was the cost/space-effective and showed the more accurate anterior/posterior position than motion sensor, comparable force control performance, and natural pelvic motion.ResultsWe verified that the proposed system was the cost/space-effective and showed the more accurate anterior/posterior position than motion sensor, comparable force control performance, and natural pelvic motion.The proposed system is cost/space effective, and able to mimic overground walking training with body weight support. In future work, we will improve the force control performance and optimize the training protocol for wide clinical use.DiscussionThe proposed system is cost/space effective, and able to mimic overground walking training with body weight support. In future work, we will improve the force control performance and optimize the training protocol for wide clinical use.
Body weight support overground walking training (BWSOWT) is widely used in gait rehabilitation. However, existing systems require large workspace, complex structure, and substantial installation cost for the actuator, which make those systems inappropriate for the clinical environment. For wide clinical use, the proposed system is based on a self-paced treadmill, and uses an optimized body weight support with frame-based two-wire mechanism. The Interactive treadmill was used to mimic overground walking. We opted the conventional DC motors to partially unload the body weight and modified pelvic type harness to allow natural pelvic motion. The performance of the proposed system on the measurement of anterior/posterior position, force control, and pelvic motion was evaluated with 8 healthy subjects during walking training. We verified that the proposed system was the cost/space-effective and showed the more accurate anterior/posterior position than motion sensor, comparable force control performance, and natural pelvic motion. The proposed system is cost/space effective, and able to mimic overground walking training with body weight support. In future work, we will improve the force control performance and optimize the training protocol for wide clinical use.
IntroductionBody weight support overground walking training (BWSOWT) is widely used in gait rehabilitation. However, existing systems require large workspace, complex structure, and substantial installation cost for the actuator, which make those systems inappropriate for the clinical environment. For wide clinical use, the proposed system is based on a self-paced treadmill, and uses an optimized body weight support with frame-based two-wire mechanism.MethodThe Interactive treadmill was used to mimic overground walking. We opted the conventional DC motors to partially unload the body weight and modified pelvic type harness to allow natural pelvic motion. The performance of the proposed system on the measurement of anterior/posterior position, force control, and pelvic motion was evaluated with 8 healthy subjects during walking training.ResultsWe verified that the proposed system was the cost/space-effective and showed the more accurate anterior/posterior position than motion sensor, comparable force control performance, and natural pelvic motion.DiscussionThe proposed system is cost/space effective, and able to mimic overground walking training with body weight support. In future work, we will improve the force control performance and optimize the training protocol for wide clinical use.
Author Jo, Yongjin
Moon, James Hyungsup
Kim, Jonghyun
Kim, Jongbum
Oh, Seunghue
AuthorAffiliation 1 Department of Robotics and Mechatronics Engineering, Daegu Gyeongbuk Institute of Science and Technology (DGIST) , Daegu , Republic of Korea
3 Department of Mechanical Engineering, Sungkyunkwan University , Suwon-si , Republic of Korea
2 Department of Physical Therapy, Uiduk University , Gyeongju-si , Republic of Korea
AuthorAffiliation_xml – name: 1 Department of Robotics and Mechatronics Engineering, Daegu Gyeongbuk Institute of Science and Technology (DGIST) , Daegu , Republic of Korea
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– name: 3 Department of Mechanical Engineering, Sungkyunkwan University , Suwon-si , Republic of Korea
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Copyright © 2023 Kim, Oh, Jo, Moon and Kim. 2023 Kim, Oh, Jo, Moon and Kim
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Keywords overground walking training
body weight support
gait rehabilitation
treadmill
wire mechanism
Language English
License Copyright © 2023 Kim, Oh, Jo, Moon and Kim.
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  publication-title: Sensors
  doi: 10.3390/s120201437
SSID ssj0062658
Score 2.276181
Snippet Body weight support overground walking training (BWSOWT) is widely used in gait rehabilitation. However, existing systems require large workspace, complex...
IntroductionBody weight support overground walking training (BWSOWT) is widely used in gait rehabilitation. However, existing systems require large workspace,...
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StartPage 1089377
SubjectTerms Body weight
body weight support
Fitness equipment
Gait
gait rehabilitation
Motion capture
Neuroscience
overground walking training
Rehabilitation
treadmill
Walking
Wire
wire mechanism
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Title A robotic treadmill system to mimic overground walking training with body weight support
URI https://www.ncbi.nlm.nih.gov/pubmed/37359910
https://www.proquest.com/docview/2823792821
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