Key result
The MLP-RL-CRD model achieved superior performance in detecting cardiovascular risk among athletes with an F-measure of 87.4% and a geometric mean of 89.6%, outperforming traditional machine learning techniques.
Why the study?
Pre-participation medical screening of athletes is necessary to identify individuals susceptible to cardiovascular events.
Does the MLP-RL-CRD model improve the detection of cardiovascular risk in athletes compared to traditional machine learning techniques?
Does the MLP-RL-CRD model improve the detection of cardiovascular risk in athletes compared to traditional machine learning techniques?
Absolute Event Rate: 87.4% vs 80.4%
The MLP-RL-CRD model provides a novel and effective machine learning approach for early cardiovascular risk detection in athletes during pre-participation screening.
May support ML screening for athlete CV risk; hypothesis-generating and requires prospective validation before practice change.
Objective. Pre-participation medical screening of athletes is necessary to pinpoint individuals susceptible to cardiovascular events. Approach. The article presents a reinforcement learning (RL)-based multilayer perceptron, termed MLP-RL-CRD, designed to detect cardiovascular risk among athletes. The model underwent training using a publicized dataset that included the anthropological measurements (such as height and weight) and biomedical metrics (covering blood pressure and pulse rate) of 26 002 athletes. To address the data imbalance, a novel RL-based technique was adopted. The problem was framed as a series of sequential decisions in which an agent classified a received instance and received a reward at each level. To resolve the insensitivity to the initialization of conventional gradient-based learning methods, a mutual learning-based artificial bee colony (ML-ABC) was proposed. Main Results. The model outcomes were validated against positive (P) and negative (N) ECG findings that had been labeled by experts to signify individuals ‘at risk’ and ‘not at risk,’ respectively. The MLP-RL-CRD approach achieves superior outcomes (F-measure 87.4%; geometric mean 89.6%) compared with other deep models and traditional machine learning techniques. Optimal values for crucial parameters, including the reward function, were identified for the model based on experiments on the study dataset. Ablation studies, which omitted elements of the suggested model, affirmed the autonomous, positive, stepwise influence of these components on performing the model. Significance. This study introduces a novel, effective method for early cardiovascular risk detection in athletes, merging reinforcement learning and multilayer perceptrons, advancing medical screening and predictive healthcare. The results could have far-reaching implications for athlete health management and the broader field of predictive healthcare analytics.
No takes yet. Share an insight, caveat, or question.
Bostani et al. (2023) studied Cardiovascular risk (n=26,002). MLP-RL-CRD model vs. Traditional machine learning models was evaluated on F-measure for cardiovascular risk detection. The MLP-RL-CRD model achieved superior performance in detecting cardiovascular risk among athletes with an F-measure of 87.4% and a geometric mean of 89.6%, outperforming traditional machine learning techniques.
Synapse has enriched 5 closely related papers on similar clinical questions. Consider them for comparative context: