Biomechanical Simulations of a Flywheel Exercise Device in Microgravity
Bone loss and muscle atrophy are two main physiological conditions affecting astronauts while being in space. In order to counteract the effects, at least two hours of aerobic and resistant countermeasure exercise is scheduled into their working day, seven days a week. Yoyo Technology AB has develop...
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KTH, Skolan för teknik och hälsa (STH)
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ndltd-UPSALLA1-oai-DiVA.org-kth-1632122015-05-28T05:01:27ZBiomechanical Simulations of a Flywheel Exercise Device in MicrogravityengBiomekaniska simuleringar av resistansgivande svänghjulsbaserad träningsutrustning i tyngdlöshetJönsson, MariaBoije, MalinKTH, Skolan för teknik och hälsa (STH)KTH, Skolan för teknik och hälsa (STH)2015FWEDFlywheel Exercise DeviceMicrogravityBiomechanical SimulationCountermeasure ExerciseResistance TrainingMotion CaptureAnyBody Modeling SystemLeg PressSquatFWEDSvänghjulsbaserad träningsutrustningTyngdlöshetBiomekanisk simuleringMotverkande träningStyrketräningMotion CaptureAnyBody Modeling SystemBenpressBenböjBone loss and muscle atrophy are two main physiological conditions affecting astronauts while being in space. In order to counteract the effects, at least two hours of aerobic and resistant countermeasure exercise is scheduled into their working day, seven days a week. Yoyo Technology AB has developed a resistance exercise device based on the flywheel principle, providing a load independent of gravity. However, there is no biomechanical research done on the efficiency of the device in microgravity, from a human movement point of view using simulation software. The aim of this thesis was to evaluate the effects of performing a leg press on the flywheel exercise device in a microgravity environment. Simulations of performing a flywheel leg press in earth gravity, microgravity and performing a conventional squat were done. The evaluated parameters were reaction forces, joint angles, joint moments, joint powers and muscle recruitment in the lower extremities. The simulations were done using a biomechanical simulation software based on a motion capture data collection. From the results two conclusions were proposed. Performing a flywheel leg press in microgravity environment or on earth provides at least as much peak moment as a body weighted squat performed on earth. Furthermore, performing a flywheel leg press in microgravity will induce a higher activity level among hip extensors and knee flexors compared to performing a flywheel leg press on earth. Student thesisinfo:eu-repo/semantics/bachelorThesistexthttp://urn.kb.se/resolve?urn=urn:nbn:se:kth:diva-163212TRITA-STH ; 2015: 015application/pdfinfo:eu-repo/semantics/openAccess |
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FWED Flywheel Exercise Device Microgravity Biomechanical Simulation Countermeasure Exercise Resistance Training Motion Capture AnyBody Modeling System Leg Press Squat FWED Svänghjulsbaserad träningsutrustning Tyngdlöshet Biomekanisk simulering Motverkande träning Styrketräning Motion Capture AnyBody Modeling System Benpress Benböj |
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FWED Flywheel Exercise Device Microgravity Biomechanical Simulation Countermeasure Exercise Resistance Training Motion Capture AnyBody Modeling System Leg Press Squat FWED Svänghjulsbaserad träningsutrustning Tyngdlöshet Biomekanisk simulering Motverkande träning Styrketräning Motion Capture AnyBody Modeling System Benpress Benböj Jönsson, Maria Boije, Malin Biomechanical Simulations of a Flywheel Exercise Device in Microgravity |
description |
Bone loss and muscle atrophy are two main physiological conditions affecting astronauts while being in space. In order to counteract the effects, at least two hours of aerobic and resistant countermeasure exercise is scheduled into their working day, seven days a week. Yoyo Technology AB has developed a resistance exercise device based on the flywheel principle, providing a load independent of gravity. However, there is no biomechanical research done on the efficiency of the device in microgravity, from a human movement point of view using simulation software. The aim of this thesis was to evaluate the effects of performing a leg press on the flywheel exercise device in a microgravity environment. Simulations of performing a flywheel leg press in earth gravity, microgravity and performing a conventional squat were done. The evaluated parameters were reaction forces, joint angles, joint moments, joint powers and muscle recruitment in the lower extremities. The simulations were done using a biomechanical simulation software based on a motion capture data collection. From the results two conclusions were proposed. Performing a flywheel leg press in microgravity environment or on earth provides at least as much peak moment as a body weighted squat performed on earth. Furthermore, performing a flywheel leg press in microgravity will induce a higher activity level among hip extensors and knee flexors compared to performing a flywheel leg press on earth. |
author |
Jönsson, Maria Boije, Malin |
author_facet |
Jönsson, Maria Boije, Malin |
author_sort |
Jönsson, Maria |
title |
Biomechanical Simulations of a Flywheel Exercise Device in Microgravity |
title_short |
Biomechanical Simulations of a Flywheel Exercise Device in Microgravity |
title_full |
Biomechanical Simulations of a Flywheel Exercise Device in Microgravity |
title_fullStr |
Biomechanical Simulations of a Flywheel Exercise Device in Microgravity |
title_full_unstemmed |
Biomechanical Simulations of a Flywheel Exercise Device in Microgravity |
title_sort |
biomechanical simulations of a flywheel exercise device in microgravity |
publisher |
KTH, Skolan för teknik och hälsa (STH) |
publishDate |
2015 |
url |
http://urn.kb.se/resolve?urn=urn:nbn:se:kth:diva-163212 |
work_keys_str_mv |
AT jonssonmaria biomechanicalsimulationsofaflywheelexercisedeviceinmicrogravity AT boijemalin biomechanicalsimulationsofaflywheelexercisedeviceinmicrogravity AT jonssonmaria biomekaniskasimuleringaravresistansgivandesvanghjulsbaseradtraningsutrustningityngdloshet AT boijemalin biomekaniskasimuleringaravresistansgivandesvanghjulsbaseradtraningsutrustningityngdloshet |
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1716804215732436992 |