Increasing the efficiency of local energy markets through residential demand response

Abstract Local energy markets (LEMs) aim at building up local balances of generation and demand close to real time. A bottom-up energy system made up of several LEMs could reduce energy transmission, renewable curtailment and redispatch measures in the long-term, if managed properly. However, relyin...

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Main Authors: Esther Mengelkamp, Samrat Bose, Enrique Kremers, Jan Eberbach, Bastian Hoffmann, Christof Weinhardt
Format: Article
Language:English
Published: SpringerOpen 2018-08-01
Series:Energy Informatics
Subjects:
Online Access:http://link.springer.com/article/10.1186/s42162-018-0017-3
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spelling doaj-443a497c7ee143bbbd40041acf091b332020-11-24T22:16:04ZengSpringerOpenEnergy Informatics2520-89422018-08-011111810.1186/s42162-018-0017-3Increasing the efficiency of local energy markets through residential demand responseEsther Mengelkamp0Samrat Bose1Enrique Kremers2Jan Eberbach3Bastian Hoffmann4Christof Weinhardt5Karlsruhe Institute of TechnologyKarlsruhe Institute of TechnologyEuropean Institute for Energy ResearchEuropean Institute for Energy ResearchEuropean Institute for Energy ResearchKarlsruhe Institute of TechnologyAbstract Local energy markets (LEMs) aim at building up local balances of generation and demand close to real time. A bottom-up energy system made up of several LEMs could reduce energy transmission, renewable curtailment and redispatch measures in the long-term, if managed properly. However, relying on limited local resources, LEMs require flexibility to achieve a high level of self-sufficiency. We introduce demand response (DR) into LEMs as a means of flexibility in residential demand that can be used to increase local self-sufficiency, decrease residual demand power peaks, facilitate local energy balances and reduce the cost of energy supply. We present a simulation study on a 100 household LEM and show how local sufficiency can be increased up to 16% with local trading and DR. We study three German regulatory scenarios and derive that the electricity price and the annual residual peak demand can be reduced by up to 10c€/kWh and 40%.http://link.springer.com/article/10.1186/s42162-018-0017-3Demand responseLocal energy marketReinforcement learningAgent-based simulationPeer-to-peer trading
collection DOAJ
language English
format Article
sources DOAJ
author Esther Mengelkamp
Samrat Bose
Enrique Kremers
Jan Eberbach
Bastian Hoffmann
Christof Weinhardt
spellingShingle Esther Mengelkamp
Samrat Bose
Enrique Kremers
Jan Eberbach
Bastian Hoffmann
Christof Weinhardt
Increasing the efficiency of local energy markets through residential demand response
Energy Informatics
Demand response
Local energy market
Reinforcement learning
Agent-based simulation
Peer-to-peer trading
author_facet Esther Mengelkamp
Samrat Bose
Enrique Kremers
Jan Eberbach
Bastian Hoffmann
Christof Weinhardt
author_sort Esther Mengelkamp
title Increasing the efficiency of local energy markets through residential demand response
title_short Increasing the efficiency of local energy markets through residential demand response
title_full Increasing the efficiency of local energy markets through residential demand response
title_fullStr Increasing the efficiency of local energy markets through residential demand response
title_full_unstemmed Increasing the efficiency of local energy markets through residential demand response
title_sort increasing the efficiency of local energy markets through residential demand response
publisher SpringerOpen
series Energy Informatics
issn 2520-8942
publishDate 2018-08-01
description Abstract Local energy markets (LEMs) aim at building up local balances of generation and demand close to real time. A bottom-up energy system made up of several LEMs could reduce energy transmission, renewable curtailment and redispatch measures in the long-term, if managed properly. However, relying on limited local resources, LEMs require flexibility to achieve a high level of self-sufficiency. We introduce demand response (DR) into LEMs as a means of flexibility in residential demand that can be used to increase local self-sufficiency, decrease residual demand power peaks, facilitate local energy balances and reduce the cost of energy supply. We present a simulation study on a 100 household LEM and show how local sufficiency can be increased up to 16% with local trading and DR. We study three German regulatory scenarios and derive that the electricity price and the annual residual peak demand can be reduced by up to 10c€/kWh and 40%.
topic Demand response
Local energy market
Reinforcement learning
Agent-based simulation
Peer-to-peer trading
url http://link.springer.com/article/10.1186/s42162-018-0017-3
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