An Overview on Electric-Stress Degradation Empirical Models for Electrochemical Devices in Smart Grids

The conversion from existing electrical networks into an all-renewable and environmentally friendly electrification scenario is insufficient to produce and distribute energy efficiently. Electrochemical devices’ premature degradation as a whole caused by electrical stressors in smart grids is incipi...

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Main Authors: Martín Antonio Rodríguez Licea, Francisco Javier Pérez Pinal, Allan Giovanni Soriano Sánchez
Format: Article
Language:English
Published: MDPI AG 2021-04-01
Series:Energies
Subjects:
Online Access:https://www.mdpi.com/1996-1073/14/8/2117
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spelling doaj-838678e6fe8148c3a5915724d22903102021-04-10T23:01:06ZengMDPI AGEnergies1996-10732021-04-01142117211710.3390/en14082117An Overview on Electric-Stress Degradation Empirical Models for Electrochemical Devices in Smart GridsMartín Antonio Rodríguez Licea0Francisco Javier Pérez Pinal1Allan Giovanni Soriano Sánchez2CONACYT-Celaya Institute of Technology, Guanajuato 38010, MexicoDepartment of Electronics of the Celaya Institute of Technology, Guanajuato 38010, MexicoCONACYT-Celaya Institute of Technology, Guanajuato 38010, MexicoThe conversion from existing electrical networks into an all-renewable and environmentally friendly electrification scenario is insufficient to produce and distribute energy efficiently. Electrochemical devices’ premature degradation as a whole caused by electrical stressors in smart grids is incipient from an energy management strategies (EMS) perspective. Namely, few electrical-stress degradation models for photovoltaic panels, batteries, fuel cells, and super/ultra-capacitors (SCs), and particular stressors can be found in the literature. In this article, the basic operating principles for such devices, existing degradation models, and future research hints, including their incorporation in novel EMS, are condensed. The necessity of extending these studies to other stressors and devices is also emphasized. There are many other degradation models by non-electrical stressors, such as climatic conditions and mechanical wear. Although novel EMS should manage both electrical and non-electrical degradation mechanisms and include non-electrochemical devices, models with pure non-electrical-stressors are not the subject of this review since they already exist. Moreover, studies for the degradation of non-electrochemical devices by electrical stressors are very scarce.https://www.mdpi.com/1996-1073/14/8/2117smart griddegradation modelfuel cellbattery bankphotovoltaic panelPV panel
collection DOAJ
language English
format Article
sources DOAJ
author Martín Antonio Rodríguez Licea
Francisco Javier Pérez Pinal
Allan Giovanni Soriano Sánchez
spellingShingle Martín Antonio Rodríguez Licea
Francisco Javier Pérez Pinal
Allan Giovanni Soriano Sánchez
An Overview on Electric-Stress Degradation Empirical Models for Electrochemical Devices in Smart Grids
Energies
smart grid
degradation model
fuel cell
battery bank
photovoltaic panel
PV panel
author_facet Martín Antonio Rodríguez Licea
Francisco Javier Pérez Pinal
Allan Giovanni Soriano Sánchez
author_sort Martín Antonio Rodríguez Licea
title An Overview on Electric-Stress Degradation Empirical Models for Electrochemical Devices in Smart Grids
title_short An Overview on Electric-Stress Degradation Empirical Models for Electrochemical Devices in Smart Grids
title_full An Overview on Electric-Stress Degradation Empirical Models for Electrochemical Devices in Smart Grids
title_fullStr An Overview on Electric-Stress Degradation Empirical Models for Electrochemical Devices in Smart Grids
title_full_unstemmed An Overview on Electric-Stress Degradation Empirical Models for Electrochemical Devices in Smart Grids
title_sort overview on electric-stress degradation empirical models for electrochemical devices in smart grids
publisher MDPI AG
series Energies
issn 1996-1073
publishDate 2021-04-01
description The conversion from existing electrical networks into an all-renewable and environmentally friendly electrification scenario is insufficient to produce and distribute energy efficiently. Electrochemical devices’ premature degradation as a whole caused by electrical stressors in smart grids is incipient from an energy management strategies (EMS) perspective. Namely, few electrical-stress degradation models for photovoltaic panels, batteries, fuel cells, and super/ultra-capacitors (SCs), and particular stressors can be found in the literature. In this article, the basic operating principles for such devices, existing degradation models, and future research hints, including their incorporation in novel EMS, are condensed. The necessity of extending these studies to other stressors and devices is also emphasized. There are many other degradation models by non-electrical stressors, such as climatic conditions and mechanical wear. Although novel EMS should manage both electrical and non-electrical degradation mechanisms and include non-electrochemical devices, models with pure non-electrical-stressors are not the subject of this review since they already exist. Moreover, studies for the degradation of non-electrochemical devices by electrical stressors are very scarce.
topic smart grid
degradation model
fuel cell
battery bank
photovoltaic panel
PV panel
url https://www.mdpi.com/1996-1073/14/8/2117
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