Which Strength Manifestation Is More Related to Regional Swimmers’ Performance and In-Water Forces? Maximal Neuromuscular Capacities Versus Maximal Mechanical Maintenance Capacity
冲刺
前爬网
运动学
物理医学与康复
数学
物理疗法
医学
物理
经典力学
作者
Sergio Miras‐Moreno,Óscar López‐Belmonte,Amador García‐Ramos,Raúl Arellano,Jesús J. Ruiz‐Navarro
出处
期刊:International Journal of Sports Physiology and Performance [Human Kinetics] 日期:2024-04-16卷期号:19 (6): 608-619被引量:1
Purpose : To explore the association of the load–velocity (L-V) relationship variables and ability to maintain maximal mechanical performance during the prone bench-pull exercise with sprint swimming performance and in-water forces. Methods : Eleven competitive adult male swimmers (50-m front crawl World Aquatics points: 488 [66], performance level 4) performed 1 experimental session. The L-V relationship variables ( L 0 [ie, maximal theoretical load at 0 velocity]; v 0 [ie, maximal theoretical velocity at 0 load], and A line [ie, area under the L-V relationship]) and maximal mechanical maintenance capacity were assessed at the beginning of the session. Afterward, sprint swimming performance and in-water force production were tested through a 50-m front-crawl all-out trial and 15-s fully-tethered swimming, respectively. Results : Only v 0 presented high positive associations with 50-m time and swimming kinematics ( r > .532; P < .046). The L 0 , v 0 , and A line showed very high positive associations with the in-water forces during tethered swimming ( r > .523; P < .049). However, the ability to maintain maximal mechanical performance, assessed by the mean velocity decline during the prone bench pull, was only significantly correlated with stroke rate ( r = −.647; P = .016) and stroke index ( r = .614; P = .022). Conclusions : These findings indicate that maximal neuromuscular capacities, especially v 0 , have a stronger correlation with swimming performance and in-water force production than the ability to maintain maximal mechanical performance in level 4 swimmers.