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ObjectiveThe goal of this study was to compare erector spinae muscle fatigue, upper limb muscle activity, body areas discomfort, and heart rate during a 10-min carrying task with and without a passive upper-body exoskeleton (CarrySuitⓇ) while considering sex influences.BackgroundPassive exoskeletons are commercially available to assist lifting or carrying task. However, evidence of their impact on muscle activity, fatigue, heart rate and discomfort are scarce and/or do not concur during carrying tasks.MethodThirty participants (16 females and 14 male) performed a 10-min, 15kg load-carrying task with and without the exoskeleton in two non-consecutive days. Heart rate, and erector spinae, deltoid, biceps and brachioradialis muscle activity were recorded during the carrying tasks. In addition, erector spinae electromyography during an isometric hold test and discomfort ratings were measured before and after the task.ResultsWhile without the exoskeleton upper limb muscle activity increased or remained constant during the carrying task and showing high peak activation for both males and females, a significant activity reduction was observed with the exoskeleton. Low back peak activation, heart rate and discomfort were lower with than without the exoskeleton. In males muscle activation was significantly asymmetric without the exoskeleton and more symmetric with the exoskeleton.ConclusionThe tested passive exoskeleton appears to alleviate the physical workload and impact of carrying heavy loads on the upper limbs and lower back for both males and females.
Male, Economics, Science, Heart rate, Paraspinal Muscles, Biomedical Engineering, FOS: Medical engineering, Isometric exercise, Exoskeletons, Task (project management), Engineering, Heart Rate, Health Sciences, Upper Limb Function, Humans, Muscle, Skeletal, Lower Limb Exoskeleton Robotics, Internal medicine, Back, Electromyography, Q, Rehabilitation, R, Principles and Interventions in Stroke Rehabilitation, Exoskeleton Device, Biomechanical Phenomena, Management, Musculoskeletal Modeling, Exoskeleton, Brachioradialis, Physical medicine and rehabilitation, Analysis of Electromyography Signal Processing, Physical Sciences, Blood pressure, Medicine, Biceps, Female, Physical therapy, Research Article
Male, Economics, Science, Heart rate, Paraspinal Muscles, Biomedical Engineering, FOS: Medical engineering, Isometric exercise, Exoskeletons, Task (project management), Engineering, Heart Rate, Health Sciences, Upper Limb Function, Humans, Muscle, Skeletal, Lower Limb Exoskeleton Robotics, Internal medicine, Back, Electromyography, Q, Rehabilitation, R, Principles and Interventions in Stroke Rehabilitation, Exoskeleton Device, Biomechanical Phenomena, Management, Musculoskeletal Modeling, Exoskeleton, Brachioradialis, Physical medicine and rehabilitation, Analysis of Electromyography Signal Processing, Physical Sciences, Blood pressure, Medicine, Biceps, Female, Physical therapy, Research Article
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