2020
DOI: 10.1007/978-3-030-58104-6_8
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First Clinical Evaluation of a Spherical Robotic System for Shoulder Rehabilitation

Abstract: The paper presents the clinical assessment of a spherical robotic system for shoulder rehabilitation. Following the initial development of the experimental model of ASPIRE robot as part of a modular robotic system for upper limb rehabilitation, the authors performed a set of clinical trials on 18 patients with different neuro-muscular disorders aiming to assess the clinician and patient acceptance, the medical relevance of the exercises performed, the system reliability and necessary optimizations to improve t… Show more

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Cited by 2 publications
(3 citation statements)
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“…The need to monitor torque during the procedure came as a result of in-hospital tests performed on patients [39][40][41][42], where the ASPIRE succeeded in performing the required rehabilitation motion, but there were times when the operator had to manually stop the robotic system because the patient arm was unable to achieve the desired amplitude due The results obtained during the virtual simulation imply the use of quite big motors to perform the rehabilitation motion; to overcome this problem, gearboxes were used. For the flexion-extension mechanism a worm gearbox gear ratio I = 45:1 was used, for the adduction-abduction mechanism a planetary gearbox with gear ratio I = 100:1 was used, and for the pronation-supination mechanism a planetary gearbox with gear ration I = 11:1 was used.…”
Section: The Development Of Torque Monitoring Systemmentioning
confidence: 99%
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“…The need to monitor torque during the procedure came as a result of in-hospital tests performed on patients [39][40][41][42], where the ASPIRE succeeded in performing the required rehabilitation motion, but there were times when the operator had to manually stop the robotic system because the patient arm was unable to achieve the desired amplitude due The results obtained during the virtual simulation imply the use of quite big motors to perform the rehabilitation motion; to overcome this problem, gearboxes were used. For the flexion-extension mechanism a worm gearbox gear ratio I = 45:1 was used, for the adduction-abduction mechanism a planetary gearbox with gear ratio I = 100:1 was used, and for the pronation-supination mechanism a planetary gearbox with gear ration I = 11:1 was used.…”
Section: The Development Of Torque Monitoring Systemmentioning
confidence: 99%
“…The need to monitor torque during the procedure came as a result of in-hospital tests performed on patients [39][40][41][42], where the ASPIRE succeeded in performing the required rehabilitation motion, but there were times when the operator had to manually stop the robotic system because the patient arm was unable to achieve the desired amplitude due to its spasticity.…”
Section: The Development Of Torque Monitoring Systemmentioning
confidence: 99%
“…The robotic systems ASPIRE [ 25 , 26 , 27 ], ParReEx Elbow, and ParReEx Wrist [ 28 , 29 , 30 ] ( Figure 1 ) are innovative parallel robots that were designed for upper limb rehabilitation (shoulder, elbow, forearm, and wrist) and have already been presented in detail in a dedicated publication [ 23 ]. The ASPIRE ( Figure 1 a) robotic device has a spherical parallel structure and was designed for the rehabilitation of the shoulder joint.…”
Section: Methodsmentioning
confidence: 99%