Synthetic Data Generation using Resilient Sample Convolution and Interactive Learning Approach

Vinayak Raj Urs, Vageesh Maiya, Janamejaya Channegowda, Chaitanya Lingaraj
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Abstract

There’s been an increase in attempts to control the surge in pollution levels due to extensive exploitation of conventional fossil fuels. These efforts have fueled research for alternative green solutions. Lithium-ion batteries are immensely beneficial for energy storage system. They are extremely advantageous in the automobile industry, particularly as a source to power Electric Vehicles (EVs). Lithium-ion batteries are also vital for powering consumer electronics. The State of Charge (SOC) measurement is used to calculate the remaining usage time of batteries, is one of the most pertinent metric. The goal of current research has been to develop accurate State of Charge (SOC) prediction algorithms. All existing methods require significant amount of superior-quality curated dataset. However, battery researchers have minimal access to commercial battery datasets and therefore must rely on open-access public datasets that lack the required heterogeneity to generate generalised SOC algorithms. To resolve this issue of lack of data, we introduce a Sample Convolution and Interaction Networks (SCINet) to produce resilient synthetic battery data. The code implementation can be found on: https://github.com/vinayakrajurs/Sample-Convolution-Interaction-Syntheic-Data
基于弹性样本卷积和交互式学习方法的合成数据生成
由于传统化石燃料的大量开采,人们越来越多地试图控制污染水平的飙升。这些努力推动了替代性绿色解决方案的研究。锂离子电池在储能系统中有着巨大的优势。它们在汽车工业中具有极大的优势,特别是作为电动汽车(ev)的动力来源。锂离子电池对于为消费电子产品供电也至关重要。荷电状态(SOC)测量用于计算电池的剩余使用时间,是最相关的度量之一。目前研究的目标是开发准确的荷电状态(SOC)预测算法。所有现有的方法都需要大量高质量的精选数据集。然而,电池研究人员对商业电池数据集的访问很少,因此必须依赖于开放访问的公共数据集,这些数据集缺乏生成通用SOC算法所需的异构性。为了解决这个缺乏数据的问题,我们引入了一个样本卷积和交互网络(SCINet)来产生有弹性的合成电池数据。代码实现可以在https://github.com/vinayakrajurs/Sample-Convolution-Interaction-Syntheic-Data上找到
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