Abstract

Nowadays, concerns about climate change have contributed significantly to changing the paradigm in the urban transportation sector towards vehicle electrification, where purely electric or hybrid vehicles are increasingly a new reality, supported by all major automotive brands. Nevertheless, new challenges are imposed on the current electrical power grids in terms of a synergistic, progressive, dynamic and stable integration of electric mobility. Besides the traditional unidirectional charging, more and more, the adoption of a bidirectional interconnection is expected to be a reality. In addition, whenever the vehicle is plugged-in, the on-board power electronics can also be used for other purposes, such as in the event of a power failure, regardless if the vehicle is in charging mode or not. Other new opportunities, from the electrical grid point of view, are even more relevant in the context of off-board power electronics systems, which can be enhanced with new features as, for example, compensation of power quality problems or interface with renewable energy sources. In this sense, this paper aims to present, in a comprehensive way, the new challenges and opportunities that smart grids are facing, including the new technologies in the vehicle electrification, towards a sustainable future. A theoretical analysis is also presented and supported by experimental validation based on developed laboratory prototypes.

Highlights

  • Nowadays, modern societies are facing the well-known problems of environmental air pollution, forcing the adoption of new strategies for mitigating greenhouse gas emissions [1,2]

  • As the title indicates, this paper focuses on the challenges and opportunities that arise from vehicle electrification, concretely in terms of the utilization of the on-board and off-board electric vehicle (EV) battery chargers (EVBCs) for innovative operation modes

  • This section the main modes of an on-board taking into account its limitations and thepresents opportunities thatoperation they can offer for the operation in EVBC, smart grids and smart homes, limitations and the opportunities that they can offer for the operation in smart grids and smart homes, concretely, in terms of power controllability and new functionalities obtained for the installation concretely, of power controllability and new obtained forintegration the installation where where the in EVterms is plugged-in

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Summary

Introduction

Modern societies are facing the well-known problems of environmental air pollution, forcing the adoption of new strategies for mitigating greenhouse gas emissions [1,2]. Alongside with RES and ESS, the large-scale adoption of vehicle electrification, principally the electric vehicle (EV), will be vital for smart grids and smart homes dissemination, as well as for reducing energy costs and greenhouse gas emissions [19,20]. Contextualizing the aforementioned aspects, harmonized for vehicle electrification, the main contributions of this paper encompass proposals in the following areas: (a) New opportunities of operation toward on-board EVBCs in a future perspective of smart homes; (b) new opportunities of operation toward single- and three-phase off-board EVBCs in a future perspective of smart grids;.

EVThis
On-Board and Off-Board
Structure
Wireless Charging Systems
Opportunities for Smart Grids
On-Board EV Battery Charger
Grid-to-Vehicle
40 A vvgg
Similarly
EV battery to the
Principle
On-board
Vehicle-to-Load
Off-Board
Power Quality Compensator
Unified Operation of Power Quality Compensator with Renewables
16. The of operation representative the off-board as athat
17. Off-board
Laboratory
21. Photography
22. Experimental
Conclusions
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