Sustainable Compliant Physical Interaction in a Biped-Wheeled Wearable Machine

This paper deals with the problem of the physical human-machine interaction in biped-wheeled exoskeletons and underlines how the symbiosis between humans and machines may increase sustainability. Few exoskeletons in the world are designed with wheels, but the evolution of wearable machines in indust...

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Main Authors: Gaspare Trono, Angelo Nicolì, Giovanni Gerardo Muscolo
Format: Article
Language:English
Published: Frontiers Media S.A. 2020-11-01
Series:Frontiers in Mechanical Engineering
Subjects:
Online Access:https://www.frontiersin.org/articles/10.3389/fmech.2020.581626/full
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spelling doaj-eb882bdc4a3c45e8b40523673110cd1a2020-12-08T08:42:46ZengFrontiers Media S.A.Frontiers in Mechanical Engineering2297-30792020-11-01610.3389/fmech.2020.581626581626Sustainable Compliant Physical Interaction in a Biped-Wheeled Wearable MachineGaspare TronoAngelo NicolìGiovanni Gerardo MuscoloThis paper deals with the problem of the physical human-machine interaction in biped-wheeled exoskeletons and underlines how the symbiosis between humans and machines may increase sustainability. Few exoskeletons in the world are designed with wheels, but the evolution of wearable machines in industries and the convenience of using wheels, underline the importance of the novel research sector of biped-wheeled exoskeletons. This paper shows the functional design and simulation of a novel biped-wheeled wearable machine, including sustainable compliant physical interaction with the subject on board. In particular, the multibody model of the proposed machine is studied and simulated with the subject model on board, including human-machine compliant interactions. The classical human walking cycle is implemented in the machine, varying the speed and the joint compliance of the subject on board and comparing the torque and power output of the motors of the biped-wheeled exoskeleton. The results of this study underline how the joint compliance of the subject on board of the biped-wheeled exoskeleton may influence the efficiency and sustainability of the biped-wheeled wearable machine.https://www.frontiersin.org/articles/10.3389/fmech.2020.581626/fullwheeled exoskeletonwheeled wearable machineexoskeletonwearable robotsbiped robotlegged robot
collection DOAJ
language English
format Article
sources DOAJ
author Gaspare Trono
Angelo Nicolì
Giovanni Gerardo Muscolo
spellingShingle Gaspare Trono
Angelo Nicolì
Giovanni Gerardo Muscolo
Sustainable Compliant Physical Interaction in a Biped-Wheeled Wearable Machine
Frontiers in Mechanical Engineering
wheeled exoskeleton
wheeled wearable machine
exoskeleton
wearable robots
biped robot
legged robot
author_facet Gaspare Trono
Angelo Nicolì
Giovanni Gerardo Muscolo
author_sort Gaspare Trono
title Sustainable Compliant Physical Interaction in a Biped-Wheeled Wearable Machine
title_short Sustainable Compliant Physical Interaction in a Biped-Wheeled Wearable Machine
title_full Sustainable Compliant Physical Interaction in a Biped-Wheeled Wearable Machine
title_fullStr Sustainable Compliant Physical Interaction in a Biped-Wheeled Wearable Machine
title_full_unstemmed Sustainable Compliant Physical Interaction in a Biped-Wheeled Wearable Machine
title_sort sustainable compliant physical interaction in a biped-wheeled wearable machine
publisher Frontiers Media S.A.
series Frontiers in Mechanical Engineering
issn 2297-3079
publishDate 2020-11-01
description This paper deals with the problem of the physical human-machine interaction in biped-wheeled exoskeletons and underlines how the symbiosis between humans and machines may increase sustainability. Few exoskeletons in the world are designed with wheels, but the evolution of wearable machines in industries and the convenience of using wheels, underline the importance of the novel research sector of biped-wheeled exoskeletons. This paper shows the functional design and simulation of a novel biped-wheeled wearable machine, including sustainable compliant physical interaction with the subject on board. In particular, the multibody model of the proposed machine is studied and simulated with the subject model on board, including human-machine compliant interactions. The classical human walking cycle is implemented in the machine, varying the speed and the joint compliance of the subject on board and comparing the torque and power output of the motors of the biped-wheeled exoskeleton. The results of this study underline how the joint compliance of the subject on board of the biped-wheeled exoskeleton may influence the efficiency and sustainability of the biped-wheeled wearable machine.
topic wheeled exoskeleton
wheeled wearable machine
exoskeleton
wearable robots
biped robot
legged robot
url https://www.frontiersin.org/articles/10.3389/fmech.2020.581626/full
work_keys_str_mv AT gasparetrono sustainablecompliantphysicalinteractioninabipedwheeledwearablemachine
AT angelonicoli sustainablecompliantphysicalinteractioninabipedwheeledwearablemachine
AT giovannigerardomuscolo sustainablecompliantphysicalinteractioninabipedwheeledwearablemachine
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