Electric Power Grids Under High-Absenteeism Pandemics: History, Context, Response, and Opportunities

IEEE Access. 2020 Nov 30:8:215727-215747. doi: 10.1109/ACCESS.2020.3041247. eCollection 2020.

Abstract

Widespread outbreaks of infectious disease, i.e., the so-called pandemics that may travel quickly and silently beyond boundaries, can significantly upsurge the morbidity and mortality over large-scale geographical areas. They commonly result in enormous economic losses, political disruptions, social unrest, and quickly evolve to a national security concern. Societies have been shaped by pandemics and outbreaks for as long as we have had societies. While differing in nature and in realizations, they all place the normal life of modern societies on hold. Common interruptions include job loss, infrastructure failure, and political ramifications. The electric power systems, upon which our modern society relies, is driving a myriad of interdependent services, such as water systems, communication networks, transportation systems, health services, etc. With the sudden shifts in electric power generation and demand portfolios and the need to sustain quality electricity supply to end customers (particularly mission-critical services) during pandemics, safeguarding the nation's electric power grid in the face of such rapidly evolving outbreaks is among the top priorities. This paper explores the various mechanisms through which the electric power grids around the globe are influenced by pandemics in general and COVID-19 in particular, shares the lessons learned and best practices taken in different sectors of the electric industry in responding to the dramatic shifts enforced by such threats, and provides visions for a pandemic-resilient electric grid of the future.

Keywords: Absenteeism; COVID-19; electric power grid; lock-down; pandemic; resilience.

Grants and funding

This work was supported in part by the U.S. National Science Foundation (NSF) under Grant ICER-2022505 and Grant CNS-1951847 (for Payman Dehghanian) and ICER-2022705 (for Mohammad Heidari-Kapourchali). The work of Masoud Barati was supported in part by NSF under Grant ECCS-1711921. The work of Miguel A. Lejeune was supported by the U.S. Office of Naval Research under Grant N000141712420.