Lascelle Mauricette, Zihang Dong, Linan Zhang, et al. Resilience Enhancement of Urban Energy Systems via Coordinated Vehicle-to-grid Control Strategies[J]. CSEE Journal of Power and Energy Systems, 2023, 9(2): 433-443.
DOI:
Lascelle Mauricette, Zihang Dong, Linan Zhang, et al. Resilience Enhancement of Urban Energy Systems via Coordinated Vehicle-to-grid Control Strategies[J]. CSEE Journal of Power and Energy Systems, 2023, 9(2): 433-443.DOI: 10.17775/CSEEJPES.2022.05270.
Resilience Enhancement of Urban Energy Systems via Coordinated Vehicle-to-grid Control Strategies
Coordinated vehicle-to-grid (V2G) control strategies can sustain essential loads of an energy system during islanding
thereby increasing resilience. In this context
this paper investigates the resilience enhancement benefits of smart V2G control
the value of electric vehicle (EV) owner cooperation on system resilience
as well as the complementary effects of PV and EV interaction in an urban multi-energy microgrid (MEMG). By using a rolling horizon approach to optimize day-ahead operation of the MEMG and subsequently dispatching EVs
uncertainties in outage start time
EV arrival/departure times
and initial state of charge (SOC) are mitigated. Results show that smart V2G control can provide a substantial essential load curtailment reduction compared to a non-EV scenario
meanwhile
non-coordinated grid-to-vehicle (G2V) operation was shown to slightly burden the system with a slight increase in non-essential load curtailment. Investigations into the influence of EV cooperation on resilience showed that a high percentage of system-prioritized (SP) EVs could help greatly further reduce essential load curtailment compared to individual-prioritized (IP) EVs. Finally
the complementary benefits of smart V2G control and PV were demonstrated
showing a reduction in both PV and essential load curtailments with increasing numbers of EVs. Overall
the application of smart V2G control
especially with cooperation of EV owners
can drive significant resilience enhancement during islanding
while further benefits can be obtained through having a sufficient number of EVs to utilize high PV penetration.
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references
3. UK Energy Research Centre. ( 2011 ). Building a resilient UK energy system . [Online ] . Available: http://nora.nerc.ac.uk/id/eprint/16648/1/UKERC_energy_2050_resilience_Res_Report_2011.pdf.
20. Imperial College London. “ Analysis of Alternative UK Heat Decarbonisation Pathways . Committee on Climate Change. [Online ] . Available: https://www.theccc.org.uklpublication/analysis-of-alternative-uk-heat-decarbonisation-pathways/.
30. IEEE PES Industry Technical Support Task Force. 2018. The definition and quantification of resilience . [Online ] . Available: https://grouper.ieee.org/groups/transformers/subcommittees/distr/C57.167/F18-DefinitionQuantificationOfResilience.pdf.
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