Cyber Risk Identification and Classification-Based Load Forecasting Tool for Pandemic Situations

IF 1.7 Q3 COMPUTER SCIENCE, INFORMATION SYSTEMS
Kuldeep Singh Shivran, Kyle Swire-Thompson, Neetesh Saxena, Sarasij Das
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引用次数: 0

Abstract

Smart grid operators use load forecasting algorithms to predict energy load for the reliable and economical operation of the electricity grid. COVID-19 pandemic-like situations (PLS) can significantly impact energy load demand due to uncertainties in factors such as regulatory orders, pandemic severity and human behavioural patterns. Additionally, in a smart grid, cyberattacks can manipulate forecasted load data, leading to suboptimal decisions, economic losses and potential blackouts. Forecasting load during these situations is challenging for traditional load forecasting tools, as they struggle to identify cyberattacks amidst uncertain load demand, where cyberattacks may mimic pandemic-like load patterns. Traditional forecasting methods do not incorporate factors related to pandemics and cyberattacks. Recent studies have focused on forecasting by considering factors such as COVID-19 cases, social distancing, weather, and temperature but fail to account for the impact of regulatory orders and pandemic severity. They also lack the ability to differentiate between normal and anomalous forecasts and classify the type of attack in anomalous data. This paper presents a tool for short-term load forecasting, anomaly detection and cyberattack classification for pandemic-like situations (PLS). The proposed short-term load forecasting algorithm uses a weighted moving average and an adjustment factor incorporating regulatory orders and pandemic severity, making it computationally efficient and deterministic. Additionally, the proposed anomaly detection and cyberattack classification algorithm provides robust options for detecting anomalies and classifying various types of cyberattacks. The proposed tool has been evaluated using K-Fold cross-validation to improve generalisability and reduce overfitting. The mean squared error (MSE) was used to measure prediction accuracy and detect discrepancies. It has been analysed and tested on real-load data from the State Load Dispatch Centre (SLDC), Delhi, of the Indian National Grid.

Abstract Image

大流行情况下的网络风险识别和基于分类的负荷预测工具
智能电网运营商使用负荷预测算法来预测能源负荷,以确保电网的可靠和经济运行。由于监管命令、大流行病严重程度和人类行为模式等因素存在不确定性,COVID-19 类大流行病(PLS)会对能源负荷需求产生重大影响。此外,在智能电网中,网络攻击可能会操纵预测的负荷数据,从而导致次优决策、经济损失和潜在停电。在这些情况下预测负荷对传统负荷预测工具来说具有挑战性,因为它们很难在不确定的负荷需求中识别网络攻击,而网络攻击可能会模仿类似大流行病的负荷模式。传统的预测方法没有考虑到与大流行病和网络攻击相关的因素。最近的研究侧重于通过考虑 COVID-19 案例、社会距离、天气和温度等因素进行预测,但没有考虑监管命令和大流行病严重程度的影响。这些研究还缺乏区分正常预测和异常预测以及对异常数据中的攻击类型进行分类的能力。本文提出了一种针对类似大流行情况的短期负荷预测、异常检测和网络攻击分类工具(PLS)。所提出的短期负荷预测算法采用加权移动平均法,并结合了监管命令和大流行病严重程度的调整因子,因此计算效率高且具有确定性。此外,拟议的异常检测和网络攻击分类算法为检测异常和分类各种类型的网络攻击提供了稳健的选择。为了提高通用性和减少过度拟合,我们使用 K-Fold 交叉验证对所提出的工具进行了评估。平均平方误差 (MSE) 用于衡量预测准确性和检测差异。对印度国家电网德里国家负荷调度中心(SLDC)的实际负荷数据进行了分析和测试。
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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来源期刊
IET Cyber-Physical Systems: Theory and Applications
IET Cyber-Physical Systems: Theory and Applications Computer Science-Computer Networks and Communications
CiteScore
5.40
自引率
6.70%
发文量
17
审稿时长
19 weeks
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