Introduction of hydrogen technologies to mitigate the impact of thermal consumption in a university campus

It is imperative for energy systems to reduce their environmental footprint in a cost-efficient manner, for which renwable energy sources (RES) and complementary technologies become desirable options to achieve said task. This is particularly the case for systems with different energy sources, as they’d be able to either address one specific type of energy demand and/or allow for the coupling of different energy carriers that would allow for technologies that normally don’t interact to start complementing each other. Therefore, this paper proposes various scenarios for the UCY campus in which hydrogen technologies would allow for the electrification of thermal demand while harnessing the surplus production coming from a solar park, which is modelled through the Integrate optimization tool and validated through DidSILENT PowerFactory. The results showcased a rise of up to 58% in self-sufficiency while the annual energy costs and CO2 emissions were reduced by 45% and 48% respectively.

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Publication Details

Published
2024-10-21
DOI
https://doi.org/10.1109/synergymed62435.2024.10799372
Primary Topic
Engineering Education and Pedagogy
Type
article
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article

Introduction of hydrogen technologies to mitigate the impact of thermal consumption in a university campus

George E. Georghiou, Magnus Askeland, T. Samotyjak, Chrysanthos Charalambous et al.
Engineering Education and Pedagogy
article

Introduction of hydrogen technologies to mitigate the impact of thermal consumption in a university campus

George E. Georghiou, Magnus Askeland, T. Samotyjak, Chrysanthos Charalambous, V. Efthymiou, Jorge Bracho, Dimitrios Lagos
article en

Abstract

It is imperative for energy systems to reduce their environmental footprint in a cost-efficient manner, for which renwable energy sources (RES) and complementary technologies become desirable options to achieve said task. This is particularly the case for systems with different energy sources, as they’d be able to either address one specific type of energy demand and/or allow for the coupling of different energy carriers that would allow for technologies that normally don’t interact to start complementing each other. Therefore, this paper proposes various scenarios for the UCY campus in which hydrogen technologies would allow for the electrification of thermal demand while harnessing the surplus production coming from a solar park, which is modelled through the Integrate optimization tool and validated through DidSILENT PowerFactory. The results showcased a rise of up to 58% in self-sufficiency while the annual energy costs and CO2 emissions were reduced by 45% and 48% respectively.

SINTEF (NO), University of Cyprus (CY), Institut de Recerca en Energia de Catalunya (ES), Institute of Power Engineering (PL)
Affordable and clean energy
Openalex Percentile: Top 73%
Engineering Education and Pedagogy
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