Distributed utility‐based real‐time power flow optimization in ICT‐enabled low voltage distribution grids

Abstract Low‐Voltage (LV) distribution grids are facing a rapid increase of connected Photovoltaic (PV) power plants as well as flexible consumers like Battery‐Electric Vehicle (BEV) chargers and Heat Pumps (HPs). The coordinated operation of these generation, storage and consumption units, referred...

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Main Authors: Hanko Ipach, Leonard Fisser, Christian Becker, Andreas Timm‐Giel
Format: Article
Language:English
Published: Wiley 2023-07-01
Series:IET Generation, Transmission & Distribution
Online Access:https://doi.org/10.1049/gtd2.12653
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author Hanko Ipach
Leonard Fisser
Christian Becker
Andreas Timm‐Giel
author_facet Hanko Ipach
Leonard Fisser
Christian Becker
Andreas Timm‐Giel
author_sort Hanko Ipach
collection DOAJ
description Abstract Low‐Voltage (LV) distribution grids are facing a rapid increase of connected Photovoltaic (PV) power plants as well as flexible consumers like Battery‐Electric Vehicle (BEV) chargers and Heat Pumps (HPs). The coordinated operation of these generation, storage and consumption units, referred to as Distributed Energy Resources (DERs), is regarded as a key requirement to maximize the benefits of renewable generation without violating, for example, voltage limits. Therefore, an operation management scheme was proposed in previous work that optimizes the power flows in LV grids in real‐time, where optimality is expressed as a maximization of the utility that DER owners experience from power consumption or injection, respectively. In this contribution, this method is extended by: (1) detailing a time‐varying utility‐model to express customer needs, (2) introducing a distributed implementation enhancing the robustness to failures, (3) developing a testbed using a real‐time digital power grid simulator and a communication network emulator, and (4) integrating a real‐time information flooding protocol. The performance is evaluated in different simulation scenarios, showing that the proposed method is able to cooperatively utilize the flexible units in order to fulfil the DER owners' needs even in the event of controller failures and constrained communication.
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spelling doaj.art-46bb9019adc649fbb13edc814d54d9f42023-07-04T04:39:15ZengWileyIET Generation, Transmission & Distribution1751-86871751-86952023-07-0117132900292510.1049/gtd2.12653Distributed utility‐based real‐time power flow optimization in ICT‐enabled low voltage distribution gridsHanko Ipach0Leonard Fisser1Christian Becker2Andreas Timm‐Giel3Hamburg University of Technology Institute of Electrical Power and Energy Technology (ieet) Hamburg GermanyHamburg University of Technology Institute of Communication Networks (ComNets) Hamburg GermanyHamburg University of Technology Institute of Electrical Power and Energy Technology (ieet) Hamburg GermanyHamburg University of Technology Institute of Communication Networks (ComNets) Hamburg GermanyAbstract Low‐Voltage (LV) distribution grids are facing a rapid increase of connected Photovoltaic (PV) power plants as well as flexible consumers like Battery‐Electric Vehicle (BEV) chargers and Heat Pumps (HPs). The coordinated operation of these generation, storage and consumption units, referred to as Distributed Energy Resources (DERs), is regarded as a key requirement to maximize the benefits of renewable generation without violating, for example, voltage limits. Therefore, an operation management scheme was proposed in previous work that optimizes the power flows in LV grids in real‐time, where optimality is expressed as a maximization of the utility that DER owners experience from power consumption or injection, respectively. In this contribution, this method is extended by: (1) detailing a time‐varying utility‐model to express customer needs, (2) introducing a distributed implementation enhancing the robustness to failures, (3) developing a testbed using a real‐time digital power grid simulator and a communication network emulator, and (4) integrating a real‐time information flooding protocol. The performance is evaluated in different simulation scenarios, showing that the proposed method is able to cooperatively utilize the flexible units in order to fulfil the DER owners' needs even in the event of controller failures and constrained communication.https://doi.org/10.1049/gtd2.12653
spellingShingle Hanko Ipach
Leonard Fisser
Christian Becker
Andreas Timm‐Giel
Distributed utility‐based real‐time power flow optimization in ICT‐enabled low voltage distribution grids
IET Generation, Transmission & Distribution
title Distributed utility‐based real‐time power flow optimization in ICT‐enabled low voltage distribution grids
title_full Distributed utility‐based real‐time power flow optimization in ICT‐enabled low voltage distribution grids
title_fullStr Distributed utility‐based real‐time power flow optimization in ICT‐enabled low voltage distribution grids
title_full_unstemmed Distributed utility‐based real‐time power flow optimization in ICT‐enabled low voltage distribution grids
title_short Distributed utility‐based real‐time power flow optimization in ICT‐enabled low voltage distribution grids
title_sort distributed utility based real time power flow optimization in ict enabled low voltage distribution grids
url https://doi.org/10.1049/gtd2.12653
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AT christianbecker distributedutilitybasedrealtimepowerflowoptimizationinictenabledlowvoltagedistributiongrids
AT andreastimmgiel distributedutilitybasedrealtimepowerflowoptimizationinictenabledlowvoltagedistributiongrids