Research on Olympic Medal Prediction and Influencing Factors Based on Multi-Dimensional Feature Fusion and Machine Learning

To address the limitations of existing Olympic medal prediction models—which over-rely on macroeconomic indicators and lack interpretability—this study proposes a hybrid machine learning framework integrating multi-dimensional feature engineering and model interpretability. This article construct a 19-feature system incorporating historical medals, athlete gender ratios, elite coach attributes (simulated via Monte Carlo), and host-nation effects. Three synergistic models are developed: (1) A multiple linear regression predicting 2028 medal distributions (RMSE=0.25); (2) A LASSO-Logistic regression identifying first-time medal-winning nations (e.g., UAE and Samoa, probability >0.5); (3) A Gradient Boosting Tree with SHAP interpretability quantifying elite coaches’ contribution (SHAP mean=0.217, *p*<0.001). Hyperparameter optimization via RandomizedSearchCV achieves high accuracy (gold medal MAE=0.09, total medals MAE=0.25). Key innovations include dynamic feature fusion and micro-level coach impact quantification, providing actionable insights for Olympic resource allocation.

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Publication Details

Journal
Highlights in Science Engineering and Technology
Published
2025-09-28
DOI
https://doi.org/10.54097/82y5eb28
Primary Topic
Winter Sports Injuries and Performance
Type
article
Field-Weighted Citation Impact
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article

Research on Olympic Medal Prediction and Influencing Factors Based on Multi-Dimensional Feature Fusion and Machine Learning

Ruihan Chen, Zhe Hu
Highlights in Science Engineering and Technology
Winter Sports Injuries and Performance
article

Research on Olympic Medal Prediction and Influencing Factors Based on Multi-Dimensional Feature Fusion and Machine Learning

Ruihan Chen, Zhe Hu
article en

Abstract

To address the limitations of existing Olympic medal prediction models—which over-rely on macroeconomic indicators and lack interpretability—this study proposes a hybrid machine learning framework integrating multi-dimensional feature engineering and model interpretability. This article construct a 19-feature system incorporating historical medals, athlete gender ratios, elite coach attributes (simulated via Monte Carlo), and host-nation effects. Three synergistic models are developed: (1) A multiple linear regression predicting 2028 medal distributions (RMSE=0.25); (2) A LASSO-Logistic regression identifying first-time medal-winning nations (e.g., UAE and Samoa, probability >0.5); (3) A Gradient Boosting Tree with SHAP interpretability quantifying elite coaches’ contribution (SHAP mean=0.217, *p*<0.001). Hyperparameter optimization via RandomizedSearchCV achieves high accuracy (gold medal MAE=0.09, total medals MAE=0.25). Key innovations include dynamic feature fusion and micro-level coach impact quantification, providing actionable insights for Olympic resource allocation.

Highlights in Science Engineering and TechnologyVol. 155
Anhui University (CN)
Openalex Percentile: Top 58%
Winter Sports Injuries and Performance
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