Geomagnetic data recovery approach based on the concept of digital twins

A. Vorobev, V. Pilipenko
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引用次数: 1

Abstract

There is no ground-based magnetic station or observatory that guarantees the quality of information received and transmitted to it. Data gaps, outliers, and anomalies are a common problem affecting virtually any ground-based magnetometer network, creating additional obstacles to efficient processing and analysis of experimental data. It is possible to monitor the reliability and improve the quality of the hardware and soft- ware modules included in magnetic stations by develop- ing their virtual models or so-called digital twins. In this paper, using a network of high-latitude IMAGE magnetometers as an example, we consider one of the possible approaches to creating such models. It has been substantiated that the use of digital twins of magnetic stations can minimize a number of problems and limitations associated with the presence of emissions and missing values in time series of geomagnetic data, and also provides the possibility of retrospective forecasting of geomagnetic field parameters with a mean square error (MSE) in the auroral zone up to 11.5 nT. Integration of digital twins into the processes of collecting and registering geomagnetic data makes the automatic identification and replacement of missing and abnormal values possible, thus increasing, due to the redundancy effect, the fault tolerance of the magnetic station as a data source object. By the example of the digital twin of the station “Kilpisjärvi” (Finland), it is shown that the proposed approach implements recovery of 99.55 % of annual information, while 86.73 % with M not exceeding 12 nT.
基于数字孪生概念的地磁数据恢复方法
没有地面地磁站或天文台来保证接收和传输信息的质量。数据缺口、异常值和异常是影响几乎所有地面磁强计网络的常见问题,为有效处理和分析实验数据创造了额外的障碍。通过开发磁站的虚拟模型或所谓的数字孪生体,可以监测磁站硬件和软件模块的可靠性并提高其质量。在本文中,我们以高纬度IMAGE磁力计网络为例,考虑了创建这种模型的一种可能方法。已经证实,使用地磁站的数字孪生可以最大限度地减少与地磁数据时间序列中存在的发射和缺失值有关的一些问题和限制。将数字孪生体集成到地磁数据的采集和登记过程中,使缺失值和异常值的自动识别和替换成为可能,从而由于冗余效应,提高了地磁站作为数据源对象的容错性。以芬兰“Kilpisjärvi”站的数字孪生体为例,表明该方法的年信息回收率为99.55%,在M不超过12 nT的情况下,年信息回收率为86.73%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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