基于身体特征和运动参数的心率动态预测模型:机器学习方法

Mahmoud Ali, Ahmed Abdelsallam, Ahmed Rasslan, Abdallah Rabee
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引用次数: 0

摘要

要准确预测运动过程中的心率变化,这对定制化健康监测和改进训练方案至关重要,就必须同时了解生理基础和数据处理技术能力。本研究利用机器学习(ML)方法,根据身体特征和活动变量预测心率反应。我们的研究侧重于健康和运动方面的成果,使用的是一个综合数据集,其中包括 12000 组广泛的活动类型和环境情况。我们将线性回归(LR)和极梯度提升(XGB)等模型预测结果的能力与其在运动管理和优化运动员表现方面的实际应用联系起来。这些模型能准确预测心率的变化,还能深入了解各种体育活动对心血管的需求。标准指标可衡量这些模型的有效性。线性回归(LR)模型的平均绝对误差(MAE)为 0.419,平均平方误差(MSE)为 0.294,均方根误差(RMSE)为 0.543,R 平方值为 0.997。另一方面,极端梯度提升(XGB)回归模型的平均绝对误差(MAE)为 0.421,平均平方误差(MSE)为 0.335,根平均平方误差(RMSE)为 0.578,R 平方值为 0.996。这些指标证明了这些模型在现实世界中的实用性。我们的研究结果表明,将生理数据与强大的机器学习模型相结合,可以提高个人对体能水平和适应性训练要求的理解能力。这项研究不仅为计算生理学领域增添了新的内容,还有助于创造适应性的实时疗法来改善健康和提高性能。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Predictive Modeling of Heart Rate Dynamics based on Physical Characteristics and Exercise Parameters: A Machine Learning Approach
To accurately forecast heart rate changes during exercise, which is essential for customized health monitoring and improving training regimens, it is necessary to comprehend both the physiological foundations and the technical capacities for data processing. This research utilizes Machine Learning (ML) methodologies to predict heart rate reactions based on physical characteristics and activity variables. Our research focuses on the health and sports aspects of our results, using a comprehensive dataset that includes a wide range of activity types and ambient circumstances across 12,000 sets. We establish a connection between the ability of models such as Linear Regression (LR) and Extreme Gradient Boosting (XGB) to predict outcomes and their practical use in exercise management and optimizing athlete performance. These models accurately forecast variations in heart rate and also provide insights into the cardiovascular demands of various physical activities. Standard metrics measure the effectiveness of these models. The Linear Regression (LR) model achieved a Mean Absolute Error (MAE) of 0.419, a Mean Squared Error (MSE) of 0.294, a Root Mean Squared Error (RMSE) of 0.543, and an R-Squared value of 0.997. On the other hand, the Extreme Gradient Boosting (XGB) Regressor model achieved a Mean Absolute Error (MAE) of 0.421, a Mean Squared Error (MSE) of 0.335, a Root Mean Squared Error (RMSE) of 0.578, and an R-Squared value of 0.996. These metrics demonstrate the usefulness of these models in real-world scenarios. Our study's findings demonstrate that the combination of physiological data and powerful machine learning models may improve an individual's comprehension of fitness levels and the requirements for adaptive training. This study not only adds to the field of computational physiology, but it also aids in the creation of adaptive, real-time therapies for improving health and performance.
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