Ergometer for physical conditioning assessment of people with disabilities and parathletes
Wheelchair users face various health issues, such as cardiac problems, obesity, tissue deformation, and shoulder and wrist injuries. Although the subject of ergometry is known since 1912 and the mechanic of propulsion gesture and wheelchair configuration has been studied over the years, most of the...
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Published in | Clinical biomechanics (Bristol) Vol. 122; no. NA; p. 106434 |
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Main Authors | , , , , |
Format | Journal Article |
Language | English |
Published |
England
Elsevier Ltd
01.02.2025
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Subjects | |
Online Access | Get full text |
ISSN | 0268-0033 1879-1271 1879-1271 |
DOI | 10.1016/j.clinbiomech.2025.106434 |
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Abstract | Wheelchair users face various health issues, such as cardiac problems, obesity, tissue deformation, and shoulder and wrist injuries. Although the subject of ergometry is known since 1912 and the mechanic of propulsion gesture and wheelchair configuration has been studied over the years, most of the equipment found in the literature are adaptations or lack the tools for standardization of techniques. This paper aims to conduct biomechanical validation of a new wheelchair ergometer (ERGO1) designed for assessing physical fitness and muscle training of the upper limbs of people with disabilities.
ERGO1 features modular design, allowing adjustments for seat and backrest, with flywheel-equipped propulsion rims simulating ground propulsion. An electromagnetic system controlled by dedicated hardware and software provides resistance, enabling Wingate and incremental protocols. The tests used the Wingate protocol, and one study was compared to the BRUCE protocol for equivalence of electrocardiogram signals.
Ten volunteers underwent the first set of Wingate tests, presenting expected power and fatigue patterns for the loss of physical capacity during exercise. 23 volunteers underwent the test comparing the ERGO1 with a conventional treadmill and the correlation between the ST Segment's behavior was found.
ERGO1 is suitable for assessing physical conditioning and enables cardiovascular assessment due to the equivalency to the standard treadmill test. Costs for the systems range from 10 to 27 times less than current commercial options. It obtained a patent in 2022, and ongoing development includes adding more ergonomic adjustments and exploring virtual reality as a serious game to enhance motivation and concentration.
•ERGO1 is a wheelchair ergometer faithful to wheelchair users' motor gestures.•It's low-cost, allows ergonomic adjustments, and uses electromagnetic systems.•Can perform Wingate and incremental test protocols.•Is equivalent to the standard treadmill test, enabling cardiovascular assessment.•Was granted a patent in 2022 and ongoing development will add more adjustments. |
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AbstractList | AbstractBackgroundWheelchair users face various health issues, such as cardiac problems, obesity, tissue deformation, and shoulder and wrist injuries. Although the subject of ergometry is known since 1912 and the mechanic of propulsion gesture and wheelchair configuration has been studied over the years, most of the equipment found in the literature are adaptations or lack the tools for standardization of techniques. This paper aims to conduct biomechanical validation of a new wheelchair ergometer (ERGO1) designed for assessing physical fitness and muscle training of the upper limbs of people with disabilities. MethodsERGO1 features modular design, allowing adjustments for seat and backrest, with flywheel-equipped propulsion rims simulating ground propulsion. An electromagnetic system controlled by dedicated hardware and software provides resistance, enabling Wingate and incremental protocols. The tests used the Wingate protocol, and one study was compared to the BRUCE protocol for equivalence of electrocardiogram signals. FindingsTen volunteers underwent the first set of Wingate tests, presenting expected power and fatigue patterns for the loss of physical capacity during exercise. 23 volunteers underwent the test comparing the ERGO1 with a conventional treadmill and the correlation between the ST Segment's behavior was found. InterpretationERGO1 is suitable for assessing physical conditioning and enables cardiovascular assessment due to the equivalency to the standard treadmill test. Costs for the systems range from 10 to 27 times less than current commercial options. It obtained a patent in 2022, and ongoing development includes adding more ergonomic adjustments and exploring virtual reality as a serious game to enhance motivation and concentration. Wheelchair users face various health issues, such as cardiac problems, obesity, tissue deformation, and shoulder and wrist injuries. Although the subject of ergometry is known since 1912 and the mechanic of propulsion gesture and wheelchair configuration has been studied over the years, most of the equipment found in the literature are adaptations or lack the tools for standardization of techniques. This paper aims to conduct biomechanical validation of a new wheelchair ergometer (ERGO1) designed for assessing physical fitness and muscle training of the upper limbs of people with disabilities. ERGO1 features modular design, allowing adjustments for seat and backrest, with flywheel-equipped propulsion rims simulating ground propulsion. An electromagnetic system controlled by dedicated hardware and software provides resistance, enabling Wingate and incremental protocols. The tests used the Wingate protocol, and one study was compared to the BRUCE protocol for equivalence of electrocardiogram signals. Ten volunteers underwent the first set of Wingate tests, presenting expected power and fatigue patterns for the loss of physical capacity during exercise. 23 volunteers underwent the test comparing the ERGO1 with a conventional treadmill and the correlation between the ST Segment's behavior was found. ERGO1 is suitable for assessing physical conditioning and enables cardiovascular assessment due to the equivalency to the standard treadmill test. Costs for the systems range from 10 to 27 times less than current commercial options. It obtained a patent in 2022, and ongoing development includes adding more ergonomic adjustments and exploring virtual reality as a serious game to enhance motivation and concentration. Wheelchair users face various health issues, such as cardiac problems, obesity, tissue deformation, and shoulder and wrist injuries. Although the subject of ergometry is known since 1912 and the mechanic of propulsion gesture and wheelchair configuration has been studied over the years, most of the equipment found in the literature are adaptations or lack the tools for standardization of techniques. This paper aims to conduct biomechanical validation of a new wheelchair ergometer (ERGO1) designed for assessing physical fitness and muscle training of the upper limbs of people with disabilities. ERGO1 features modular design, allowing adjustments for seat and backrest, with flywheel-equipped propulsion rims simulating ground propulsion. An electromagnetic system controlled by dedicated hardware and software provides resistance, enabling Wingate and incremental protocols. The tests used the Wingate protocol, and one study was compared to the BRUCE protocol for equivalence of electrocardiogram signals. Ten volunteers underwent the first set of Wingate tests, presenting expected power and fatigue patterns for the loss of physical capacity during exercise. 23 volunteers underwent the test comparing the ERGO1 with a conventional treadmill and the correlation between the ST Segment's behavior was found. ERGO1 is suitable for assessing physical conditioning and enables cardiovascular assessment due to the equivalency to the standard treadmill test. Costs for the systems range from 10 to 27 times less than current commercial options. It obtained a patent in 2022, and ongoing development includes adding more ergonomic adjustments and exploring virtual reality as a serious game to enhance motivation and concentration. •ERGO1 is a wheelchair ergometer faithful to wheelchair users' motor gestures.•It's low-cost, allows ergonomic adjustments, and uses electromagnetic systems.•Can perform Wingate and incremental test protocols.•Is equivalent to the standard treadmill test, enabling cardiovascular assessment.•Was granted a patent in 2022 and ongoing development will add more adjustments. Background: Wheelchair users face various health issues, such as cardiac problems, obesity, tissue deformation, and shoulder and wrist injuries. Although the subject of ergometry is known since 1912 and the mechanic of propulsion gesture and wheelchair configuration has been studied over the years, most of the equipment found in the literature are adaptations or lack the tools for standardization of techniques. This paper aims to conduct biomechanical validation of a new wheelchair ergometer (ERGO1) designed for assessing physical fitness and muscle training of the upper limbs of people with disabilities. Methods: ERGO1 features modular design, allowing adjustments for seat and backrest, with flywheel-equipped propulsion rims simulating ground propulsion. An electromagnetic system controlled by dedicated hardware and software provides resistance, enabling Wingate and incremental protocols. The tests used the Wingate protocol, and one study was compared to the BRUCE protocol for equivalence of electrocardiogram signals. Findings: Ten volunteers underwent the first set of Wingate tests, presenting expected power and fatigue patterns for the loss of physical capacity during exercise. 23 volunteers underwent the test comparing the ERGO1 with a conventional treadmill and the correlation between the ST Segment's behavior was found. Interpretation: ERGO1 is suitable for assessing physical conditioning and enables cardiovascular assessment due to the equivalency to the standard treadmill test. Costs for the systems range from 10 to 27 times less than current commercial options. It obtained a patent in 2022, and ongoing development includes adding more ergonomic adjustments and exploring virtual reality as a serious game to enhance motivation and concentration. Wheelchair users face various health issues, such as cardiac problems, obesity, tissue deformation, and shoulder and wrist injuries. Although the subject of ergometry is known since 1912 and the mechanic of propulsion gesture and wheelchair configuration has been studied over the years, most of the equipment found in the literature are adaptations or lack the tools for standardization of techniques. This paper aims to conduct biomechanical validation of a new wheelchair ergometer (ERGO1) designed for assessing physical fitness and muscle training of the upper limbs of people with disabilities.BACKGROUNDWheelchair users face various health issues, such as cardiac problems, obesity, tissue deformation, and shoulder and wrist injuries. Although the subject of ergometry is known since 1912 and the mechanic of propulsion gesture and wheelchair configuration has been studied over the years, most of the equipment found in the literature are adaptations or lack the tools for standardization of techniques. This paper aims to conduct biomechanical validation of a new wheelchair ergometer (ERGO1) designed for assessing physical fitness and muscle training of the upper limbs of people with disabilities.ERGO1 features modular design, allowing adjustments for seat and backrest, with flywheel-equipped propulsion rims simulating ground propulsion. An electromagnetic system controlled by dedicated hardware and software provides resistance, enabling Wingate and incremental protocols. The tests used the Wingate protocol, and one study was compared to the BRUCE protocol for equivalence of electrocardiogram signals.METHODSERGO1 features modular design, allowing adjustments for seat and backrest, with flywheel-equipped propulsion rims simulating ground propulsion. An electromagnetic system controlled by dedicated hardware and software provides resistance, enabling Wingate and incremental protocols. The tests used the Wingate protocol, and one study was compared to the BRUCE protocol for equivalence of electrocardiogram signals.Ten volunteers underwent the first set of Wingate tests, presenting expected power and fatigue patterns for the loss of physical capacity during exercise. 23 volunteers underwent the test comparing the ERGO1 with a conventional treadmill and the correlation between the ST Segment's behavior was found.FINDINGSTen volunteers underwent the first set of Wingate tests, presenting expected power and fatigue patterns for the loss of physical capacity during exercise. 23 volunteers underwent the test comparing the ERGO1 with a conventional treadmill and the correlation between the ST Segment's behavior was found.ERGO1 is suitable for assessing physical conditioning and enables cardiovascular assessment due to the equivalency to the standard treadmill test. Costs for the systems range from 10 to 27 times less than current commercial options. It obtained a patent in 2022, and ongoing development includes adding more ergonomic adjustments and exploring virtual reality as a serious game to enhance motivation and concentration.INTERPRETATIONERGO1 is suitable for assessing physical conditioning and enables cardiovascular assessment due to the equivalency to the standard treadmill test. Costs for the systems range from 10 to 27 times less than current commercial options. It obtained a patent in 2022, and ongoing development includes adding more ergonomic adjustments and exploring virtual reality as a serious game to enhance motivation and concentration. |
ArticleNumber | 106434 |
Author | Albino Vieira, Sérgio Augusto Finzi Neto, Roberto Mendes dos Santos, Silvio Soares de Fazzio, Fernando Roberto de Araújo, Cleudmar Amaral |
Author_xml | – sequence: 1 givenname: Sérgio Augusto surname: Albino Vieira fullname: Albino Vieira, Sérgio Augusto email: sergioaugustoav@gmail.com organization: Faculty of Mechanical Engineering (FEMEC), Federal University of Uberlândia, Uberlândia, MG, Brazil – sequence: 2 givenname: Silvio Soares surname: dos Santos fullname: dos Santos, Silvio Soares organization: Faculty of Physical Education and Physiotherapy (FAEFI), Federal University of Uberlândia, Uberlândia, MG, Brazil – sequence: 3 givenname: Fernando Roberto surname: de Fazzio fullname: de Fazzio, Fernando Roberto organization: Postgraduate Program in Health Sciences, Faculty of Medicine, Federal University of Uberlândia, Minas Gerais, Brazil – sequence: 4 givenname: Roberto Mendes surname: Finzi Neto fullname: Finzi Neto, Roberto Mendes organization: Faculty of Mechanical Engineering (FEMEC), Federal University of Uberlândia, Uberlândia, MG, Brazil – sequence: 5 givenname: Cleudmar Amaral surname: de Araújo fullname: de Araújo, Cleudmar Amaral organization: Faculty of Mechanical Engineering (FEMEC), Federal University of Uberlândia, Uberlândia, MG, Brazil |
BackLink | https://www.ncbi.nlm.nih.gov/pubmed/39826186$$D View this record in MEDLINE/PubMed |
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Keywords | Disabled people MOSFET Cardiovascular stress test Paralympic sports DC motor Ergometer Wheelchair Physical conditioning ST segment dsPIC RPM BPM encompasses the region between the end of ventricular depolarization and the beginning of ventricular repolarization on the ECG Metal Oxide Semiconductor Field Effect Transistor beats per minute rotations per minute direct current motor Digital Signal Peripheral Interface Controller from the Microchip Technology company |
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Title | Ergometer for physical conditioning assessment of people with disabilities and parathletes |
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