让你的大脑在游戏中:使用机器学习来预测运动相关脑震荡后的恢复时间。

IF 2.1
Garrett A Thomas, Peter A Arnett
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引用次数: 0

摘要

目的:本探索性概念验证研究旨在利用机器学习技术开发运动相关脑震荡后恢复比赛(RTP)时间表的预测模型。方法:使用联邦跨部门创伤性脑损伤研究信息系统(FITBIR)和脑震荡评估、研究和教育(CARE)联盟提供的数据,样本包括971名具有可用RTP数据的大学运动员。数据被分成训练集、测试集和验证集。随机森林(RF)回归模型基于个体因素、损伤数据以及脑震荡后24-48小时收集的症状和认知表现数据来预测RTP的天数。递归特征消去(RFE)用于识别与RTP最密切相关的特征。我们还以恢复类型(典型[≤28天]与延长[> 28天])作为感兴趣的结果进行了射频分类建模。结果:RFE表现出31项最佳表现,其中大部分与脑震荡后症状和认知表现有关。RF回归模型表现出适度的性能,分别占测试集和验证集方差的21%和17%。RF分类模型在不同的数据集平衡水平上也表现出良好的性能。最强的分类模型准确率为89.04%,在测试集上F1得分为0.56。在验证集上,模型的准确率为85.52%,F1得分为0.40。接收算子特征AUC为0.85。结论:总的来说,这些发现支持了机器学习模型在脑震荡管理中的应用,特别是在预测恢复时间方面。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Get Your Brain in the Game: Using Machine Learning to Predict Recovery Timelines Following Sports-Related Concussion.

Objective: This exploratory proof-of-concept study aimed to develop predictive models for return-to-play (RTP) timelines following sports-related concussion using machine learning techniques.

Methods: Using data available through Federal Interagency Traumatic Brain Injury Research Informatics System (FITBIR) and the Concussion Assessment, Research and Education (CARE) Consortium, the sample included 971 college athletes with available RTP data. Data were split into training, testing, and validation sets. Random forest (RF) regression modeling was used to predict number of days to RTP based on individual factors, injury data, and symptom and cognitive performance data collected 24-48 hr post-concussion. Recursive feature elimination (RFE) was used to identify the features that were most strongly associated with RTP. We also conducted RF classification modeling with recovery type (typical [≤ 28 days] vs. prolonged [> 28 days]) as the outcome of interest.

Results: RFE revealed optimal performance with 31 features, most of which were related to post-concussion symptomatology and cognitive performance. The RF regression model showed modest performance, accounting for 21% and 17% of the variance in testing and validation sets, respectively. The RF classification models also showed good performance across different levels of dataset balancing. The strongest classification model showed an accuracy of 89.04% with an F1 score of 0.56 on the testing set. On the validation set, the model showed 85.52% accuracy with an F1 score of 0.40. Receiver operator characteristics showed an AUC of 0.85.

Conclusions: Overall, these findings support the use of machine learning models in concussion management - particularly with predicting recovery timelines.

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