Neuromechanical Differences between Pronated and Supinated Forearm Positions during Upper-Body Wingate Tests

S. Alizadeh, Philip F. Edwards, E. Lockyer, M. W. Holmes, K. Power, D. Behm, D. Button
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Abstract

Arm-cycling is a versatile exercise modality with applications in both athletic enhancement and rehabilitation, yet the influence of forearm orientation remains understudied. Thus, this study aimed to investigate the impact of forearm position on upper-body arm-cycling Wingate tests. Fourteen adult males (27.3 ± 5.8 years) underwent bilateral assessments of handgrip strength in standing and seated positions, followed by pronated and supinated forward arm-cycling Wingate tests. Electromyography (EMG) was recorded from five upper-extremity muscles, including anterior deltoid, triceps brachii lateral head, biceps brachii, latissimus dorsi, and brachioradialis. Simultaneously, bilateral normal and propulsion forces were measured at the pedal-crank interface. Rate of perceived exertion (RPE), power output, and fatigue index were recorded post-test. The results showed that a pronated forearm position provided significantly (p < 0.05) higher normal and propulsion forces and triceps brachii muscle activation patterns during arm-cycling. No significant difference in RPE was observed between forearm positions (p = 0.17). A positive correlation was found between seated handgrip strength and peak power output during the Wingate test while pronated (dominant: p = 0.01, r = 0.55; non-dominant: p = 0.03, r = 0.49) and supinated (dominant: p = 0.03, r = 0.51; don-dominant: p = 0.04, r = 0.47). Fatigue changed the force and EMG profile during the Wingate test. In conclusion, this study enhances our understanding of forearm position's impact on upper-body Wingate tests. These findings have implications for optimizing training and performance strategies in individuals using arm-cycling for athletic enhancement and rehabilitation.
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上半身翼展试验中前臂前屈和上举姿势的神经力学差异
手臂绕环是一种多用途的锻炼方式,可用于提高运动能力和康复,但前臂方向的影响仍未得到充分研究。因此,本研究旨在调查前臂位置对上半身臂力循环 Wingate 测试的影响。14 名成年男性(27.3 ± 5.8 岁)分别在站立和坐姿下接受了双侧握力评估,然后进行了前臂旋臂温盖特测试。对五块上肢肌肉进行了肌电图(EMG)记录,包括三角肌前部、肱三头肌外侧头、肱二头肌、背阔肌和肱肌。同时,在踏板-曲柄接口处测量双侧正常力和推进力。测试后记录了感知用力率(RPE)、输出功率和疲劳指数。结果表明,前臂前伸姿势在手臂骑车时提供的正常力和推进力以及肱三头肌激活模式明显更高(P < 0.05)。不同前臂姿势的 RPE 没有明显差异(p = 0.17)。在温盖特测试中,发现坐姿手握力量与前屈(优势姿势:p = 0.01,r = 0.55;非优势姿势:p = 0.03,r = 0.49)和上举(优势姿势:p = 0.03,r = 0.51;非优势姿势:p = 0.04,r = 0.47)时的峰值功率输出之间存在正相关。疲劳改变了 Wingate 测试中的力量和 EMG 曲线。总之,这项研究加深了我们对前臂位置对上半身 Wingate 测试影响的理解。这些发现对使用手臂循环来提高运动能力和康复效果的个人优化训练和表现策略具有重要意义。
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