Adaptive control-based Isolated bi-directional converter for G2V& V2G charging with integration of the renewable energy source

Singirikonda, S. and Obulesu, Y.P. and Kannan, R. and Reddy, K.J. and Kiran Kumar, G. and Alhakami, W. and Baz, A. and Alhakami, H. (2022) Adaptive control-based Isolated bi-directional converter for G2V& V2G charging with integration of the renewable energy source. Energy Reports, 8. pp. 11416-11428. ISSN 23524847

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Abstract

In this research paper, Adaptive control-based Isolated bi-directional converter for modernized electric vehicle system is introduced with control on charge and discharge of the electric vehicle (EV) battery as per the reference value. The EV battery is operated in two modes, such as charge (Grid-to-Vehicle) mode and discharge (vehicle-to-grid) mode. In charging mode, constant current and constant voltage (CCCV) control is adopted with control on charging voltage and current. Whereas in discharging mode, constant current (CC) control is adopted for control on discharge current from battery into the grid. The grid is also interconnected to PV system for renewable energy power sharing. In both the control techniques, ANFIS is integrated for better performance of the battery during charge and discharge conditions. The ANFIS takes input from error generated by comparison of reference and measured value and produces the required duty ratio value. The training of the fuzzy structure is done using data generated from the PI controller input and output. The training uses hybrid algorithm for adapting the data points considered from the PI controller. The EV battery is charged using the conventional AC grid and the renewable energy source in G2V mode, and the EV battery and renewable energy sources are used to supply power to the AC load in the V2G mode, which reducing the load demand on the AC grid. The DC-Link voltage and power to the AC load are kept constant in both modes of operation by using a synchronous reference frame controlled VSC and an ANFIS controlled dual active full bridge converter. The incremental conductance MPPT algorithm is used to control the Photo Voltaic Array (PVA). The proposed work is implemented using MATLAB/Simulink and HIL performance of the proposal system is examined in the RT-LAB OP-5700 real time simulator environment. © 2022 The Authors

Item Type: Article
Additional Information: cited By 3
Uncontrolled Keywords: Adaptive control systems; Battery management systems; Charging (batteries); Controllers; Electric discharges; Electric machine control; Electric power system control; Electric power transmission networks; Electric vehicles; Fuzzy inference; Fuzzy neural networks; Fuzzy systems; Natural resources; Renewable energy resources; Secondary batteries, Adaptive neuro-fuzzy inference; Adaptive-neuro fuzzy inference system; Electric vehicle batteries; G2V (grid to vehicle); Neuro-fuzzy inference systems; PV system; V2G (vehicle to grid); Vehicle to grids; Voltage source; Voltage source converter, Vehicle-to-grid
Depositing User: Mr Ahmad Suhairi UTP
Date Deposited: 19 Dec 2023 03:22
Last Modified: 19 Dec 2023 03:22
URI: https://khub.utp.edu.my/scholars/id/eprint/16249

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