Movement Dynamics in Elite Female Soccer Athletes: The Quantile Cube Approach

📅 2025-03-14
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🤖 AI Summary
This study quantifies dynamic changes in external load among elite female football players during matches, specifically examining inter-half differences in the joint distribution of speed, acceleration, and movement angle, while accounting for match round, seasonal phase, and positional role. Method: Leveraging high-precision GPS data from 23 professional matches, we introduce a novel three-dimensional quantile cube to jointly model these three motion dimensions; further, we integrate PCA-based anomaly detection with Dirichlet-multinomial regression to develop a temporally sensitive, individualized framework for movement pattern analysis. Results: Significant individual-specific shifts in inter-half movement distributions were identified; anomalous matches—particularly at season onset and termination—were successfully detected; and the modulating effects of playing position and match exposure time on movement profiles were systematically quantified.

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📝 Abstract
This paper presents an innovative adaptation of existing methodology to investigate external load in elite female soccer athletes using GPS-derived movement data from 23 matches. We developed a quantitative framework to examine velocity, acceleration, and movement angle across game halves, enabling transparent and meaningful performance insights. By constructing a quantile cube to quantify movement patterns, we segmented athletes' movements into distinct velocity, acceleration, and angle quantiles. Statistical analysis revealed significant differences in movement distributions between match halves for individual athletes. Principal Component Analysis (PCA) identified anomalous games with unique movement dynamics, particularly at the start and end of the season. Dirichlet-multinomial regression further explored how factors like athlete position, playing time, and game characteristics influenced movement profiles. This approach provides a structured method for analyzing movement dynamics, revealing external load variations over time and offering insights into performance optimization. The integration of these statistical techniques demonstrates the potential of data-driven strategies to enhance athlete monitoring in soccer.
Problem

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Analyzing movement dynamics in elite female soccer athletes
Identifying differences in movement distributions between match halves
Exploring factors influencing movement profiles and performance optimization
Innovation

Methods, ideas, or system contributions that make the work stand out.

Quantile cube segments velocity acceleration angle
Principal Component Analysis identifies unique movement dynamics
Dirichlet-multinomial regression explores position time characteristics
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Kendall L. Thomas
Department of Statistics and Operations Research, University of North Carolina at Chapel Hill, Chapel Hill, NC, US
Jan Hannig
Jan Hannig
Kenan Distinguished Professor of Statistics and Operations Research, University of North Carolina