Development of Smartphone-Controlled Hand and Arm Exoskeleton for Persons with Disability
This study addresses the need for assistive technology of people who lost control of their upper limbs as well as people who are undergoing rehabilitation. Loss of upper limb control causes lack of functionality and social acceptability especially for many people in developing countries with fewer a...
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2020-12-01
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Online Access: | https://doi.org/10.1515/eng-2021-0016 |
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doaj-aa4680cd4d3143eab7576cff84220f622021-10-03T07:42:30ZengDe GruyterOpen Engineering2391-54392020-12-0111116117010.1515/eng-2021-0016eng-2021-0016Development of Smartphone-Controlled Hand and Arm Exoskeleton for Persons with DisabilityDiego J-R. R.0Martinez Dan William C.1Robles Gerald S.2Dizon John Ryan C.3Department of Mechanical Engineering, College of Engineering and Architecture, Bataan Peninsula State University, City of Balanga, Bataan, 2100, PhilippinesDepartment of Mechanical Engineering, College of Engineering and Architecture, Bataan Peninsula State University, City of Balanga, Bataan, 2100, PhilippinesDepartment of Mechanical Engineering, College of Engineering and Architecture, Bataan Peninsula State University, City of Balanga, Bataan, 2100, PhilippinesAdditive Manufacturing Research Laboratory, Department of Industrial Engineering, College of Engineering and Architecture, Bataan Peninsula State University, City of Balanga, Bataan, 2100, PhilippinesThis study addresses the need for assistive technology of people who lost control of their upper limbs as well as people who are undergoing rehabilitation. Loss of upper limb control causes lack of functionality and social acceptability especially for many people in developing countries with fewer available technology. The study develops a modern but low-cost prosthetic device that can be controlled by users using a smartphone and can be rapidly manufactured using three-dimensional printing (3D printing) of plastic materials. The development of the prosthetic device includes designing the mechanical and electronic parts, programming the Arduino board and Android application for control, simulation and analysis of 3D printed parts most subjected to stress, and 3D printing the parts under different settings. The device was tested in terms of time spent and capacity of lifting varying loads when not worn and when worn by users. The device can effectively lift 500 grams of load in one second for a person weighing between 50 to 60 kilograms.https://doi.org/10.1515/eng-2021-0016exoskeleton3d printingpersons with disabilitiesprostheticsbiomechanics |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Diego J-R. R. Martinez Dan William C. Robles Gerald S. Dizon John Ryan C. |
spellingShingle |
Diego J-R. R. Martinez Dan William C. Robles Gerald S. Dizon John Ryan C. Development of Smartphone-Controlled Hand and Arm Exoskeleton for Persons with Disability Open Engineering exoskeleton 3d printing persons with disabilities prosthetics biomechanics |
author_facet |
Diego J-R. R. Martinez Dan William C. Robles Gerald S. Dizon John Ryan C. |
author_sort |
Diego J-R. R. |
title |
Development of Smartphone-Controlled Hand and Arm Exoskeleton for Persons with Disability |
title_short |
Development of Smartphone-Controlled Hand and Arm Exoskeleton for Persons with Disability |
title_full |
Development of Smartphone-Controlled Hand and Arm Exoskeleton for Persons with Disability |
title_fullStr |
Development of Smartphone-Controlled Hand and Arm Exoskeleton for Persons with Disability |
title_full_unstemmed |
Development of Smartphone-Controlled Hand and Arm Exoskeleton for Persons with Disability |
title_sort |
development of smartphone-controlled hand and arm exoskeleton for persons with disability |
publisher |
De Gruyter |
series |
Open Engineering |
issn |
2391-5439 |
publishDate |
2020-12-01 |
description |
This study addresses the need for assistive technology of people who lost control of their upper limbs as well as people who are undergoing rehabilitation. Loss of upper limb control causes lack of functionality and social acceptability especially for many people in developing countries with fewer available technology. The study develops a modern but low-cost prosthetic device that can be controlled by users using a smartphone and can be rapidly manufactured using three-dimensional printing (3D printing) of plastic materials. The development of the prosthetic device includes designing the mechanical and electronic parts, programming the Arduino board and Android application for control, simulation and analysis of 3D printed parts most subjected to stress, and 3D printing the parts under different settings. The device was tested in terms of time spent and capacity of lifting varying loads when not worn and when worn by users. The device can effectively lift 500 grams of load in one second for a person weighing between 50 to 60 kilograms. |
topic |
exoskeleton 3d printing persons with disabilities prosthetics biomechanics |
url |
https://doi.org/10.1515/eng-2021-0016 |
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