An investigation of an athlete injury likelihood monitoring system using the random forest algorithm and DWT

Abstract

BACKGROUND:

The main goal of sports science is to monitor sports injuries. Nevertheless, the existing sports injury monitoring projects have many expensive instruments and excessively extended monitoring periods, which makes it difficult to expand sports injury monitoring on a large scale.

OBJECTIVE:

The advancement of machine learning algorithms opens up new avenues for the tracking of sports injuries.

METHODS:

A training set of sports injuries was created using the Discrete Wavelet Transform (DWT) and Random Forest algorithms. Next, a basic analytic framework was created based on the lower-body movement of runners, and an athlete’s injury likelihood monitoring system was established. First off, the wearable gyroscope device can efficiently plot the motion displacement curve and monitor the three-dimensional mechanics of the athlete’s hips, thighs, and calves. Secondly, the system has a higher computational efficiency and an advantage over other classifier-based systems in terms of testing and training times

RESULTS:

The suggested system framework identifies athletes’ injury propensity, providing preventive recommendations based on displacement curves, and offering a low total cost and high testing accuracy, making it easy to implement and cost-effective.

CONCLUSION:

All things considered, the sports injury monitoring device is very accurate and reasonably priced, making it appropriate for widespread use.