Inter-Segmental Timing as A Contributing Factor to Knee Loading in Stop-Jump Landings

Landing tasks are a major contributor to knee injuries in sport. While biomechanical determinants of knee joint loading have already been studied, less attention has been given to the role of inter-segmental timing during sport-specific landings. This study aimed to examine both biomechanical and temporal predictors of knee joint loading during horizontal and vertical phases of stop-jump landings. Thirty-three male volleyball and basketball players performed stop-jump tasks while lower-limb kinematics, kinetics, patellar tendon forces, and anterior tibial shear forces were calculated. Statistical Parametric Mapping and Linear Mixed Models were used to identify phase-specific differences and predictors of knee loading. Inter-segmental timing, quantified as foot-contact delay between body segments, emerged as a significant predictor of knee joint loading across conditions. This finding extends previous work by highlighting inter-segmental timing as an additional factor influencing knee joint loading alongside established biomechanical predictors such as displacement velocity, body mass, and knee range of motion. Horizontal landing phases showed a stiffer strategy compared to vertical phases, with reduced joint range of motion (40–83%) and increased knee valgus. These differences were associated with higher anterior tibial shear (121%) and patellar tendon (156%) forces. These results may be particularly relevant in sport situations where landings are not fully planned and can be altered by external perturbations such as opponents’ deceiving actions.

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Publication Details

Journal
Journal of Sports Science and Medicine
Published
2026-08-27
DOI
https://doi.org/10.52082/jssm.2026.753
Primary Topic
Knee injuries and reconstruction techniques
Type
article
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article

Inter-Segmental Timing as A Contributing Factor to Knee Loading in Stop-Jump Landings

Julien Paulus, Jean-François Kaux, Jean-Louis Croisier, Cedric Schwartz et al.
Journal of Sports Science and Medicine
Knee injuries and reconstruction techniques
article

Inter-Segmental Timing as A Contributing Factor to Knee Loading in Stop-Jump Landings

Julien Paulus, Jean-François Kaux, Jean-Louis Croisier, Cedric Schwartz, Etienne Dubois, Laura Delhauteur
article en

Abstract

Landing tasks are a major contributor to knee injuries in sport. While biomechanical determinants of knee joint loading have already been studied, less attention has been given to the role of inter-segmental timing during sport-specific landings. This study aimed to examine both biomechanical and temporal predictors of knee joint loading during horizontal and vertical phases of stop-jump landings. Thirty-three male volleyball and basketball players performed stop-jump tasks while lower-limb kinematics, kinetics, patellar tendon forces, and anterior tibial shear forces were calculated. Statistical Parametric Mapping and Linear Mixed Models were used to identify phase-specific differences and predictors of knee loading. Inter-segmental timing, quantified as foot-contact delay between body segments, emerged as a significant predictor of knee joint loading across conditions. This finding extends previous work by highlighting inter-segmental timing as an additional factor influencing knee joint loading alongside established biomechanical predictors such as displacement velocity, body mass, and knee range of motion. Horizontal landing phases showed a stiffer strategy compared to vertical phases, with reduced joint range of motion (40–83%) and increased knee valgus. These differences were associated with higher anterior tibial shear (121%) and patellar tendon (156%) forces. These results may be particularly relevant in sport situations where landings are not fully planned and can be altered by external perturbations such as opponents’ deceiving actions.

Journal of Sports Science and Medicine
University of Liège (BE)
Openalex Percentile: Top 8%
Knee injuries and reconstruction techniques
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