Case study of reactive power management via electric vehicles in distribution grids
Veuthey, Gonzalo
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https://hdl.handle.net/2142/107267
Description
Title
Case study of reactive power management via electric vehicles in distribution grids
Author(s)
Veuthey, Gonzalo
Contributor(s)
Bose, Subhonmesh
Issue Date
2020-05
Keyword(s)
Electric Vehicles
Distributed Generation
Voltage Control
Reactive Power Management
Abstract
In the last few decades, humankind has been concerned with finding a feasible way of coping with
the expected future increase in the demand for electricity, while reducing the emissions of pollutants
to the atmosphere. Many governments are investing in the development of new technologies, and
it is believed by many experts in the field that a potential solution for these problems is to replace
the internal combustion engine automobiles with Electric Vehicles (EVs). The energy storage in
their batteries and the potential connection of thousands of EVs to the distribution grid could greatly
help with its operation while providing Vehicle-to-Grid (V2G) reactive power support. The aim of this
thesis is to analyze the inclusion of different scenarios of EV penetration to a simulated distribution
grid with 22 nodes, using the computing program Matlab. In every scenario, the influence of the
different locations of the EVs in the grid will be examined according to their reactive power support
and the voltage profile regulation. Additionally, all daily timeframes will be evaluated regarding the
influence of different EV penetration scenarios on the voltage profiles of the 22-bus distribution
network according to the location of the EVs, the number of EVs available and their charging
patterns. The existing residential load variations over a 24-hour cycle as well as realistic EV
residential parking occupancy were also taken into account when analyzing two different charging
scenarios.
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