Key result
The MLP-FL-CRD model outperformed other machine learning algorithms in diagnosing cardiovascular risk in athletes, achieving an F-measure of 0.871 compared to 0.804 for the closest competitor.
Why the study?
Cardiovascular diseases are a prevalent cause of heart failure worldwide, requiring investigation into potential approaches to address the condition.
Does a focal loss-based multi-layer perceptron improve the diagnosis of cardiovascular risk in athletes compared to other machine learning models?
Does a focal loss-based multi-layer perceptron improve the diagnosis of cardiovascular risk in athletes compared to other machine learning models?
A focal loss-based multi-layer perceptron optimized with an artificial bee colony algorithm improves the diagnosis of cardiovascular risk in athletes using imbalanced clinical data.
Answers are grounded in this paper and cite their sources.
May aid athlete CV risk detection with imbalanced data; leaves open prospective validation before clinical use.
Cardiovascular diseases (CVDs) are a prevalent cause of heart failure around the world. This research was required in order to investigate potential approaches to treating the disease. The article presents a focal loss (FL)-based multi-layer perceptron called MLP-FL-CRD to diagnose cardiovascular risk in athletes. In 2012, 26,002 athletes were measured for their height, weight, age, sex, blood pressure, and pulse rate in a medical exam that had electrocardiography at rest. Outcomes were negative for the largest majority, leading to class imbalance. Training on imbalanced data hurts classifier performance. To address this, the study proposes a training approach based on focal loss, which effectively emphasizes minority class examples. Focal loss softens the influence of simplistic samples, enabling the model to concentrate on more intricate examples. It is useful in circumstances when there is a substantial class imbalance. Additionally, the paper highlights a challenge in the training phase, often characterized by the use of gradient-based learning methods like backpropagation. These methods exhibit several disadvantages, including sensitivity to initialization. The paper recommends the implementation of a mutual learning-based artificial bee colony (ML-ABC). This approach adjusts the primary weight by substituting the food resource candidate, which is selected due to superior fitness, with one based on a mutual learning factor between two individuals. The sample obtains great outcomes, outperforming other machine learning samples. Optimal values for important parameters are identified for the model based on experiments on the study dataset. Ablation studies that exclude FL and ML-ABC of the sample confirm the additive effect of, which is not negative and dependent, these factors on the sample’s efficiency.
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Chuan Yang (2023) studied Cardiovascular risk (n=26,002). MLP-FL-CRD model (Focal Loss-based Multi-layer Perceptron) vs. Other machine learning models (e.g., Decision Tree, SVM, Naive Bayes) was evaluated on F-measure for cardiovascular risk classification. The MLP-FL-CRD model outperformed other machine learning algorithms in diagnosing cardiovascular risk in athletes, achieving an F-measure of 0.871 compared to 0.804 for the closest competitor.
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