Saeterbakken Atle Hole, Stien Nicolay, Pedersen Helene, Langer Kaja, Scott Suzanne, Michailov Michail Lubomirov, Gronhaug Gudmund, Baláš Jiří, Solstad Tom Erik Jorung, Andersen Vidar
Department of Sport, Food and Natural Sciences, Faculty of Education, Western Norway University of Applied Sciences, Campus Sogndal, Røyrgata 6, 6856, Sogndal, Norway.
Department of Human Sciences, Institute of Sports Science, Technical University Darmstadt, Darmstadt, Germany.
Sports Med Open. 2024 Jan 19;10(1):10. doi: 10.1186/s40798-024-00677-w.
Climbing is an intricate sport composed of various disciplines, holds, styles, distances between holds, and levels of difficulty. In highly skilled climbers the potential for further strength-specific adaptations to increase performance may be marginal in elite climbers. With an eye on the upcoming 2024 Paris Olympics, more climbers are trying to maximize performance and improve training strategies. The relationships between muscular strength and climbing performance, as well as the role of strength in injury prevention, remain to be fully elucidated. This narrative review seeks to discuss the current literature regarding the effect of resistance training in improving maximal strength, muscle hypertrophy, muscular power, and local muscular endurance on climbing performance, and as a strategy to prevent injuries.
Since sport climbing requires exerting forces against gravity to maintain grip and move the body along the route, it is generally accepted that a climbers absolute and relative muscular strength are important for climbing performance. Performance characteristics of forearm flexor muscles (hang-time on ledge, force output, rate of force development, and oxidative capacity) discriminate between climbing performance level, climbing styles, and between climbers and non-climbers. Strength of the hand and wrist flexors, shoulders and upper limbs has gained much attention in the scientific literature, and it has been suggested that both general and specific strength training should be part of a climber
s training program. Furthermore, the ability to generate sub-maximal force in different work-rest ratios has proved useful, in examining finger flexor endurance capacity while trying to mimic real-world climbing demands. Importantly, fingers and shoulders are the most frequent injury locations in climbing. Due to the high mechanical stress and load on the finger flexors, fingerboard and campus board training should be limited in lower-graded climbers. Coaches should address, acknowledge, and screen for amenorrhea and disordered eating in climbers.
Structured low-volume high-resistance training, twice per week hanging from small ledges or a fingerboard, is a feasible approach for climbers. The current injury prevention training aims to increase the level of performance through building tolerance to performance-relevant load exposure and promoting this approach in the climbing field.
攀岩是一项复杂的运动,由各种学科、抓握点、风格、抓握点之间的距离以及难度级别组成。在高技能攀岩者中,精英攀岩者进一步进行特定力量适应以提高成绩的潜力可能有限。着眼于即将到来的2024年巴黎奥运会,越来越多的攀岩者试图最大限度地提高成绩并改进训练策略。肌肉力量与攀岩成绩之间的关系,以及力量在预防损伤中的作用,仍有待充分阐明。本叙述性综述旨在讨论当前有关阻力训练对提高最大力量、肌肉肥大、肌肉力量和局部肌肉耐力对攀岩成绩的影响的文献,以及作为预防损伤的一种策略。
由于竞技攀岩需要对抗重力施加力量以保持抓握并沿着路线移动身体,人们普遍认为攀岩者的绝对和相对肌肉力量对攀岩成绩很重要。前臂屈肌的表现特征(在岩架上的悬挂时间、力量输出、力量发展速率和氧化能力)区分了攀岩成绩水平、攀岩风格以及攀岩者和非攀岩者。手部和腕部屈肌、肩部和上肢的力量在科学文献中受到了很多关注,并且有人建议一般和特定的力量训练都应该成为攀岩者训练计划的一部分。此外,在不同工作-休息比例下产生次最大力量的能力已被证明在模拟现实世界攀岩需求时检查手指屈肌耐力方面很有用。重要的是,手指和肩部是攀岩中最常受伤的部位。由于手指屈肌承受的机械应力和负荷较高,低等级攀岩者的指力板和校园板训练应受到限制。教练应关注、认识并筛查攀岩者的闭经和饮食失调情况。
每周两次从小岩架或指力板上悬挂的结构化低容量高阻力训练对攀岩者来说是一种可行的方法。当前的预防损伤训练旨在通过建立对与成绩相关的负荷暴露 的耐受性并在攀岩领域推广这种方法来提高成绩水平。