男性业余马拉松运动员跑步支撑阶段跟腱负荷参数与膝关节损伤风险的相关性

邹荣霞 ,  贾志强 ,  马蕊

应用力学学报 ›› 2026, Vol. 43 ›› Issue (4) : 949 -958.

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应用力学学报 ›› 2026, Vol. 43 ›› Issue (4) : 949 -958. DOI: 10.11776/j.issn.1000-4939.2026.04.020
生物力学

男性业余马拉松运动员跑步支撑阶段跟腱负荷参数与膝关节损伤风险的相关性

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Correlation between Achilles tendon load parameters and risk of knee joint injury in male amateur marathon runners during running support stage

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摘要

目的 探讨男性业余马拉松运动员跑步支撑阶段跟腱负荷参数与膝关节损伤风险的相关性。方法 于2022年5月至2023年1月随机招募180名男性业余马拉松运动员作为研究对象,采用三维测力台、红外高速运动捕捉系统、超声影像仪采集运动员跑步支撑阶段跟腱负荷参数(最大跟腱力、跟腱冲量、跟腱应力、跟腱应变)、膝关节负荷参数[峰值膝关节内收力矩(knee adduction moment,KAM)、峰值膝关节屈曲力矩(knee flexion moment,KFM)],分析跟腱负荷参数与膝关节损伤的相关性,以及跟腱负荷参数对膝关节损伤的预测价值。结果 首先将180名运动员的年龄、体质量指数、跑鞋类型、着地方式、周跑量作为协变量进行整体的倾向性评分匹配,共筛选出150名运动员作为研究对象。依据跑步支撑阶段跟腱负荷参数,将运动员分为低负荷组(47名)、中负荷组(61名)、高负荷组(42名)。其中跑步支撑阶段最大跟腱力、跟腱冲量、跟腱应力、跟腱应变、KAM值为高负荷组>中负荷组>低负荷组,KFM值为高负荷组<中负荷组<低负荷组(P<0.05);跑步支撑阶段最大跟腱力、跟腱冲量、跟腱应力、跟腱应变与KAM呈正相关,与KFM呈负相关(P<0.05);膝关节损伤发生率高负荷组>中负荷组>低负荷组(P<0.05);发生膝关节损伤的运动员跑步支撑阶段最大跟腱力、跟腱冲量、跟腱应力、跟腱应变高于无膝关节损伤的运动员(P<0.05);跑步支撑阶段最大跟腱力、跟腱冲量、跟腱应力、跟腱应变与膝关节损伤呈正相关(P<0.05);跑步支撑阶段最大跟腱力、跟腱冲量、跟腱应力、跟腱应变预测男性业余马拉松运动员膝关节损伤风险的AUC为0.754、0.742、0.770、0.764,均对男性业余马拉松运动员膝关节损伤有一定预测价值。结论 男性业余马拉松运动员跑步支撑阶段跟腱负荷参数与膝关节负荷情况有关,可有效预测膝关节损伤风险,为男性业余马拉松运动员日常训练提供指导。

Abstract

Objective To explore the correlation between Achilles tendon load parameters and risk of knee joint injury in male amateur marathon runners during running support stage. Methods A total of 180 male amateur marathon runners were randomly recruited from May 2022 to January 2023 as the research objects. Three-dimensional force platform,infrared high-speed motion capture system and ultrasonic imager were used to measure the Achilles tendon load parameters (maximum Achilles tendon force,Achilles tendon impulse,Achilles tendon stress,Achilles tendon strain) and knee joint load parameters [ knee adduction torque (KAM),knee flexion torque (KFM)] in the running support stage of athletes. The correlation between Achilles tendon load parameters and knee joint injury was analyzed,and the predictive value of Achilles tendon load parameters on knee joint injury was analyzed. Results Firstly,the age,body mass index,type of running shoes,landing mode and weekly running volume of 180 athletes were used as covariates to carry out the overall propensity score matching,and a total of 150 athletes were selected as the research objects. According to the Achilles tendon load parameters in the running support stage,the athletes were divided into low load group (47 cases),medium load group (61 cases) and high load group (42 cases). The maximum Achilles tendon force,Achilles tendon impulse,Achilles tendon stress,Achilles tendon strain and KAM in the running support stage of the high load group were higher than those in the medium load group and the low load group,the medium load group was higher than the low load group,the KFM was lower than the medium load group and the low load group,and the medium load group was lower than the low load group (P<0.05). The maximum Achilles tendon force,Achilles tendon impulse,Achilles tendon stress and Achilles tendon strain in the running support stage were positively correlated with KAM and negatively correlated with KFM (P<0.05). The incidence of knee joint injury in the high load group was higher than that in the middle load group and the low load group,and that in the middle load group was higher than that in the low load group (P<0.05). The maximum Achilles tendon force,Achilles tendon impulse,Achilles tendon stress and Achilles tendon strain of athletes with knee joint injury during running support stage were higher than those of athletes without knee joint injury (P<0.05). The maximum Achilles tendon force,Achilles tendon impulse,Achilles tendon stress and Achilles tendon strain in the running support stage were positively correlated with knee joint injury (P<0.05). The AUC of the maximum Achilles tendon force,Achilles tendon impulse,Achilles tendon stress and Achilles tendon strain in the running support stage to predict the risk of knee joint injury of male amateur marathon runners was 0.754,0.742,0.770 and 0.764,respectively,which had certain predictive value for knee joint injury of male amateur marathon runners. Conclusion The Achilles tendon load parameters of male amateur marathon runners in the running support stage are related to the knee joint load,which can effectively predict the risk of knee joint injury and provide guidance for the daily training of male amateur marathon runners.

关键词

膝关节损伤 / 男性 / 业余马拉松运动员 / 跑步支撑阶段 / 跟腱负荷参数 / 预测价值

Key words

knee joint injury / male / amateur marathon runner / running support stage / Achilles tendon load parameter / predictive value

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邹荣霞,贾志强,马蕊. 男性业余马拉松运动员跑步支撑阶段跟腱负荷参数与膝关节损伤风险的相关性[J]. 应用力学学报, 2026, 43(4): 949-958 DOI:10.11776/j.issn.1000-4939.2026.04.020

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参考文献

[1]

Edwards J JDeenmamode A H PGriffiths Met al. Exercise training and resting blood pressure:a large-scale pairwise and network meta-analysis of randomised controlled trials[J]. British Journal of Sports Medicine, 202357(20): 1317-1326.

[2]

Braschler LNikolaidis P TThuany Met al. Physiology and pathophysiology of marathon running:a narrative review[J]. Sports Medicine-Open, 202511(1): 10.

[3]

O'riordan CSavage ENewell Met al. Cardiovascular disease risk factor profile of experienced male amateur marathon runners:a systematic review[J]. Sports Health:A Multidisciplinary Approach, 202315(5): 661-672.

[4]

母应秀, 幸兴, 唐桥. 青少年中长跑运动员跑步步态对下肢运动损伤的影响[J]. 中国运动医学杂志, 202443(1): 17-28.

[5]

Mu YingxiuXing XingTang Qiao. Research on the influence of running gait on sports injuries of lower limb in middle-and long-distance teenage runners[J]. Chinese Journal of Sports Medicine, 202443(1): 17-28(in Chinese).

[6]

白啸天, 朱瑶佳, 霍洪峰. 运动性疲劳对跑步足踝肌肉协同特征的影响[J]. 中国运动医学杂志, 202342(3): 191-200.

[7]

Bai XiaotianZhu YaojiaHuo Hongfeng. Effects of exercise-induced fatigue on synergy of foot and ankle muscles during running[J]. Chinese Journal of Sports Medicine, 202342(3): 191-200(in Chinese).

[8]

Lopes A DMascarinas AHespanhol L. Are alterations in running biomechanics associated with running injuries? A systematic review with meta-analysis[J]. Brazilian Journal of Physical Therapy, 202327(4): 100538.

[9]

Li D XLiu Y LFeng Y Yet al. Interlimb asymmetries of lower limb isometric strength for predicting plantar fasciitis in male amateur marathon runners:a prospective cohort study[J]. BMC Sports Science,Medicine and Rehabilitation, 202517(1): 255.

[10]

Augustus SAmca A MHudson P Eet al. Choice of low-pass filter influences practical interpretation of ball kicking motions:the effect of a time-frequency filter method[J]. Sports Biomechanics, 202322(11): 1412-1429.

[11]

Gong T XZhao A XZhou J Qet al. A facile inverse dynamics method to study the impacts of fatigue on the lower limb biomechanics[J]. Biotechnology and Genetic Engineering Reviews, 202339(2): 676-687.

[12]

Voukelatos DEvangelidis P EPain M T G. The hamstrings to quadriceps functional ratio expressed over the full angle-angular velocity range using a limited number of data points[J]. Royal Society Open Science, 20229(4): 210696.

[13]

张希妮, 王俊清, 杨洋, . 基于跑姿控制训练模式下的跟腱生物力学研究[J]. 体育科学, 201939(4): 63-70.

[14]

Zhang XiniWang JunqingYang Yanget al. Effects of simulated barefoot running on Achilles tendon mechanical properties[J]. China Sport Science, 201939(4): 63-70(in Chinese).

[15]

Joseph M FLillie K RBergeron D Jet al. Measuring Achilles tendon mechanical properties a reliable,noninvasive method[J]. Journal of Strength and Conditioning Research, 201226(8): 2017-2020.

[16]

Xergia S ATsarbou CNikolaos I Let al. Risk factors for Achilles tendon rupture:an updated systematic review[J]. The Physician and Sportsmedicine, 202351(6): 506-516.

[17]

King C MVartivarian M. Achilles tendon rupture repair:simple to complex[J]. Clinics in Podiatric Medicine and Surgery, 202340(1): 75-96.

[18]

Waugh C MMousavizadeh RLee Jet al. Mild hypercholesterolemia impacts Achilles sub-tendon mechanical properties in young rats[J]. BMC Musculoskeletal Disorders, 202324(1): 282.

[19]

Jakubowski K LLudvig DPerreault E Jet al. Non-linear properties of the Achilles tendon determine ankle impedance over a broad range of activations in humans[J]. Journal of Experimental Biology, 2023226(14): jeb244863.

[20]

Kuşcu BBilal ÖDogˇar Fet al. Effects of L-carnitine on healing of Achilles tendon in rats[J]. Joint Diseases and Related Surgery, 202334(1): 84-91.

[21]

Faria AGabriel RBrás Ret al. Free-oscillation technique:the effect of the magnitude of the impulse applied on muscle and tendon stiffness around the ankle[J]. PLoS One, 202318(6): e0286847.

[22]

陈诗琴, 杨洋, 张勤, . 业余跑者跑步经济性与下肢运动学和时空步态特征的相关性研究[J]. 应用力学学报, 202542(2): 473-482.

[23]

Chen ShiqinYang YangZhang Qinet al. Relationship of running economy with lower-limb kinematics and spatiotemporal gait characteristics in recreational runners[J]. Chinese Journal of Applied Mechanics, 202542(2): 473-482(in Chinese).

[24]

Yurteri AMercan NÇelik Met al. The effect of caffeic acid on tendon healing in rats with an Achilles tendon injury model[J]. Joint Diseases and Related Surgery, 202334(3): 669-678.

[25]

Adam N CSmith C RHerzog Wet al. In vivo strain patterns in the Achilles tendon during dynamic activities:a comprehensive survey of the literature[J]. Sports Medicine-Open, 20239(1): 60.

[26]

Cooper KAlexander LBrandie Det al. Exercise therapy for tendinopathy:a mixed-methods evidence synthesis exploring feasibility,acceptability and effectiveness.[J]. Health Technology Assessment, 202327(24): 1-389.

[27]

史晓惠, 梁潇, 赵岷. 步频差异对大学生跑步时下肢冲击力和运动学特征的影响研究[J]. 应用力学学报, 202441(6): 1436-1446.

[28]

Shi XiaohuiLiang XiaoZhao Min. Influence of step frequency difference on the impact force and kinematic characteristics of lower limbs of college students during running[J]. Chinese Journal of Applied Mechanics, 202441(6): 1436-1446(in Chinese).

[29]

Ertman BKlaeser MVoie Let al. Alterations in Achilles tendon stress and strain across a range of running velocities[J]. Journal of Sports Sciences, 202341(5): 495-501.

[30]

Patra R CGupta SYashudas Aet al. Effects of isoinertial training on muscle power,endurance,isometric strength,and balance:randomized clinical trial in patients with post-ACL reconstruction[J]. Trials, 202526(1): 257.

[31]

Murray I RMakaram N SGeeslin A Get al. Multiligament knee injury (MLKI):an expert consensus statement on nomenclature,diagnosis,treatment and rehabilitation[J]. British Journal of Sports Medicine, 202458(23): 1385-1400.

[32]

Gould H PLostetter S JSamuelson E Ret al. Lower extremity injury rates on artificial turf versus natural grass playing surfaces:a systematic review[J]. The American Journal of Sports Medicine, 202351(6): 1615-1621.

[33]

Hullfish T JWoods M MKwon M Pet al. The difference in achilles tendon loading within immobilizing boots based on ankle angle,boot type,and walking speed[J]. Orthopaedic Journal of Sports Medicine, 202412(10): 23259671241283806.

[34]

Schilaty N DBates N AKruisselbrink Set al. Linear discriminant analysis successfully predicts knee injury outcome from biomechanical variables[J]. The American Journal of Sports Medicine, 202048(10): 2447-2455.

基金资助

国家社会科学基金资助项目(2023BTY002)

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