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1 型糖尿病未来连续血糖监测读数的短期预测:神经网络回归模型的开发和验证。

Short-term prediction of future continuous glucose monitoring readings in type 1 diabetes: Development and validation of a neural network regression model.

机构信息

Department of Health Science and Technology, Aalborg University, Denmark.

Department of Health Science and Technology, Aalborg University, Denmark; Steno Diabetes Center North Denmark, Aalborg University Hospital, Aalborg, Denmark.

出版信息

Int J Med Inform. 2021 Jul;151:104472. doi: 10.1016/j.ijmedinf.2021.104472. Epub 2021 Apr 24.

DOI:10.1016/j.ijmedinf.2021.104472
PMID:33932763
Abstract

BACKGROUND AND OBJECTIVE

CGM systems are still subject to a time-delay, which especially during rapid changes causes clinically significant difference between the CGM and the actual BG level. This study had the aim of exploring the potential of developing and validating a model for prediction of future CGM measurements in order to overcome the time-delay.

METHODS

An artificial neural network regression (NN) approach were used to predict CGM values with a lead-time of 15 min. The NN were trained and internally validated on 23 million minutes of CGM and externally validated on 2 million minutes of CGM. The validation included data from 278 type 1 diabetes patients using three different CGM sensors. The NN performance were compared with three alternative methods, linear extrapolation, spline extrapolation and last observation carried forward.

RESULTS

The internal validation yielded a RMSE of 9.1 mg/dL, a MARD of 4.2 % and 99.9 % of predictions were in the A + B zone of the consensus error grid. The external validation yielded a RMSE of 5.9-11.3 mg/dL, a MARD of 3.2-5.4 % and 99.9-100 % of predictions were in the A + B zone of the consensus error grid. The NN performed better on all parameters compared to the two alternative methods.

CONCLUSIONS

We proposed and validated a NN glucose prediction model that is potential simple to use and implement. The model only needs input from a CGM system in order to facilitate glucose prediction with a lead time of 15 min. The approach yielded good results for both internal and external validation.

摘要

背景与目的

CGM 系统仍存在时间延迟,尤其是在血糖快速变化时,CGM 与实际血糖水平之间会出现临床显著差异。本研究旨在探索开发和验证预测未来 CGM 测量值模型的潜力,以克服时间延迟。

方法

采用人工神经网络回归(NN)方法,预测 15 分钟提前期的 CGM 值。NN 在 2300 万分钟的 CGM 数据上进行训练和内部验证,并在 200 万分钟的 CGM 数据上进行外部验证。验证包括来自 278 名 1 型糖尿病患者的数据,使用了三种不同的 CGM 传感器。将 NN 性能与三种替代方法(线性外推、样条外推和末次观察值结转)进行了比较。

结果

内部验证的 RMSE 为 9.1mg/dL,MARD 为 4.2%,99.9%的预测值位于一致性误差网格的 A+B 区。外部验证的 RMSE 为 5.9-11.3mg/dL,MARD 为 3.2-5.4%,99.9-100%的预测值位于一致性误差网格的 A+B 区。与两种替代方法相比,NN 在所有参数上的性能均更优。

结论

我们提出并验证了一种 NN 血糖预测模型,该模型可能易于使用和实施。该模型仅需要 CGM 系统的输入,即可实现 15 分钟提前期的血糖预测。该方法的内部和外部验证结果均良好。

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