Olympic Medal Prediction Analysis Based on The Random Forest Model

Authors

  • Yuhui Li
  • Yuxuan Zeng

DOI:

https://doi.org/10.54097/9rpgqa55

Keywords:

Random Forest Model, LSTM, Olympic Medal Prediction.

Abstract

During the 2024 Paris Olympics, both individual events and the overall medal tally have garnered significant attention. As a key indicator of a nation's competitive strength, the number of Olympic medals serves as a critical reference for countries preparing for the Games. This paper addresses three core questions: how to predict the medal rankings for the 2028 Los Angeles Olympics, the likelihood of countries that have never won medals securing their first, and the impact of Olympic events on medal rankings. By combining the Random Forest algorithm and the LSTM model to predict feature variables (such as gender ratio and number of participants), a high-precision medal prediction model was constructed, achieving an R² score of 0.929 and an MSE of 1.78098. For countries that have never won a medal, nine countries were selected, and their probability of winning a medal in 2028 was predicted. Additionally, the Random Forest Regressor model was used to analyze the importance of sports events, identify key events for each country, and reveal the strategic impact of host country event selection. The conclusions indicate that this model provides a scientific basis for countries to optimize their Olympic training strategies and resource allocation.

Downloads

Download data is not yet available.

References

[1] Luo Yubo, Cheng Yanfang, Li Mengyao, et al. Prediction of China's Medal Count and Overall Strength at the Beijing Winter Olympics: Based on the Host Country Effect and Grey Prediction Model [J]. Contemporary Sports Science and Technology, 2022, 12(21): 183-186.

[2] Lu Z, Li S, Sun J. Prediction of Olympic Medal Based on Multiple Linear Regression and Logistic Regression[J]. Frontiers in Computing and Intelligent Systems,2025,12(1):17-21.

[3] Cheng Hongren, Lyu Jie, and Yuan Tinggang. Predicting China's Track and Field Performance at the Tokyo Olympics Based on the 2018 World Top 20 Rankings for Track and Field Events [J]. Sports Science and Technology Literature Bulletin, 2020, 28(04): 4-8.

[4] Zhu X, Wang S, Li X, et al.A Study on Olympic Medal Table Prediction Based on LSTM and DBILSTM[J].Journal of Globe Scientific Reports,2025,7(2):249-258.

[5] Yan D. OLYMPIC MEDAL PREDICTION AND ANALYSIS BASED ON LSTM AND TOPSIS MODELS[J]. Journal of Computer Science and Electrical Engineering,2025,7(3):

[6] Zhang Yiming, Tang Yulei, Feng Junbo. Prediction and Analysis of Glaciers on the Qinghai-Tibet Plateau Based on a Random Forest Model [J/OL]. Arid Zone Geography, 1-14 [2025-06-12].

[7] Bai X, Zhang L, Feng Y, et al.Multivariate temperature prediction model based on CNN-BiLSTM and RandomForest[J].The Journal of Supercomputing,2024,81(1):162-162.

[8] Lemenkova P. Automation of image processing through ML algorithms of GRASS GIS using embedded Scikit-Learn library of Python[J]. Examples and Counterexamples,2025,7100180-100180.

[9] Lee J Y, Joo J M, Yu K H, et al.Random forest regressor for predicting sensory texture of emotional designed packaging films[J].Results in Engineering,2025,25104147-104147.

[10] Chowdhury S, Saha K A, Das K D. Hydroelectric Power Potentiality Analysis for the Future Aspect of Trends with R2 Score Estimation by XGBoost and Random Forest Regressor Time Series Models[J]. Procedia Computer Science,2025,252450-456.

Downloads

Published

28-09-2025

How to Cite

Li , Y., & Zeng, Y. (2025). Olympic Medal Prediction Analysis Based on The Random Forest Model. Highlights in Science, Engineering and Technology, 155, 365-374. https://doi.org/10.54097/9rpgqa55