Publication Type:

Conference Paper

Source:

2016 International Conference on Energy Efficient Technologies for Sustainability (ICEETS), p.366-371 (2016)

ISBN:

978-1-4673-9925-8

Accession Number:

16358017

URL:

http://ieeexplore.ieee.org/document/7583782/

Keywords:

active power flow, arcing problems, Distributed generation (DG)units, Distributed generation units, Distributed power generation, grid connected mode, islanded mode, load flow, load flow control, Low voltage, Low Voltage (LV) microgrid, MATLAB, Microgrids, multi microgrid system, on load tap changers, PCC, Point of common coupling, Point of common coupling (PCC), power distribution control, power markets, Simulink, smart transformer based power flow control, Smart transformer(ST), thyristor controlled on load tap changing transformer, Thyristors, Voltage control, Voltage source inverter (VSI), voltage-based droop control strategy

Abstract:

In order to increase the flexibility of a microgrid, the active power exchange between a microgrid and the utility grid as well as other microgrids need to be controlled properly. The voltage based control of a Smart Transformer allows the control of active power flow between a utility grid and a microgrid at the point of common coupling (PCC). This paper addresses the control of the active power flow between two microgrids in an islanded mode and also between two microgrids in the grid connected mode with and without encouraging the participation of the utility grid. Here, we utilize the voltage based control on a thyristor controlled on load tap changing transformer which makes the Smart Transformer concept even more smart. The thyristor based Smart Transformer at the PCC enables faster switching and minimizes the arcing problems of a normal on-load tap changing transformer. The distributed generation units in the microgrid should be equipped with a voltage-based droop control strategy which reacts on the voltage change, making the Smart Transformer an element that controls power exchange without the need for any communication to other elements in the microgrid. The experimental simulations performed in MATLAB/SIMULINK follow that a smart transformer allows the power flow control between two microgrids.

Notes:

cited By 0; Conference of 2016 International Conference on Energy Efficient Technologies for Sustainability, ICEETS 2016 ; Conference Date: 7 April 2016 Through 8 April 2016; Conference Code:124164

Cite this Research Publication

J. S. V. C., G., H., and Nair, M. G., “Smart transformer based power flow control in multi microgrid system”, in 2016 International Conference on Energy Efficient Technologies for Sustainability (ICEETS), 2016, pp. 366-371.

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