Analysing sector coupling technologies for Re-purposing coal-fired power plants–Case study for the ENTSO-E grid

Publikationen: Beitrag in FachzeitschriftArtikelForschung(peer-reviewed)

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Analysing sector coupling technologies for Re-purposing coal-fired power plants–Case study for the ENTSO-E grid. / Traupmann, Anna; Greiml, Matthias; Steinegger, Josef et al.
in: IET Energy systems integration, Jahrgang 5.2023, Nr. 1, 10.03.2023, S. 95-118.

Publikationen: Beitrag in FachzeitschriftArtikelForschung(peer-reviewed)

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@article{8b46a68c4470468abd9e174efeb38a86,
title = "Analysing sector coupling technologies for Re-purposing coal-fired power plants–Case study for the ENTSO-E grid",
abstract = "The high emission intensity of coal-fired power plants (CFPP) leads to the inevitable next step towards energy transition, the coal phase-out. One challenge is the subsequent use of still-functioning assets. Re-purposing these assets avoids value loss and creates new opportunities for coal regions. Therefore, this study considers the sector coupling technologies Power-to-Gas (PtG) and Gas-to-Power (GtP) as re-purposing options. First, a multi-variable Mixed-Integer Linear Programming optimisation model is established. This model includes the participation of the plant in the current (2020) and future (2030, 2040) electricity and natural gas spot-markets and the balancing power market while fulfilling existing contracts, and allows for determining the re-purposing technologies' operating profiles. By applying a techno-economic analysis, investment recovery periods of the considered re-purposing technologies are assessed, which range between two (GtP) and over ten (PtG) years. A sensitivity analysis accounting for current energy prices and technological advancements reveals capital expenditure has the highest impact on this Return-On-Investment period. Additionally, a case study considering the Austrian energy grids is performed to account for the grid impact of integrating these technologies at former CFPP sites. Thus, it is found that the investigated sector coupling technologies have the potential to compensate for grid congestions even in profit-optimised operation.",
author = "Anna Traupmann and Matthias Greiml and Josef Steinegger and Lisa K{\"u}hberger and Thomas Kienberger",
year = "2023",
month = mar,
day = "10",
doi = "10.1049/esi2.12087",
language = "English",
volume = "5.2023",
pages = "95--118",
journal = " IET Energy systems integration",
issn = "2516-8401",
publisher = "John Wiley & Sons, Gro{\ss}britannien",
number = "1",

}

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TY - JOUR

T1 - Analysing sector coupling technologies for Re-purposing coal-fired power plants–Case study for the ENTSO-E grid

AU - Traupmann, Anna

AU - Greiml, Matthias

AU - Steinegger, Josef

AU - Kühberger, Lisa

AU - Kienberger, Thomas

PY - 2023/3/10

Y1 - 2023/3/10

N2 - The high emission intensity of coal-fired power plants (CFPP) leads to the inevitable next step towards energy transition, the coal phase-out. One challenge is the subsequent use of still-functioning assets. Re-purposing these assets avoids value loss and creates new opportunities for coal regions. Therefore, this study considers the sector coupling technologies Power-to-Gas (PtG) and Gas-to-Power (GtP) as re-purposing options. First, a multi-variable Mixed-Integer Linear Programming optimisation model is established. This model includes the participation of the plant in the current (2020) and future (2030, 2040) electricity and natural gas spot-markets and the balancing power market while fulfilling existing contracts, and allows for determining the re-purposing technologies' operating profiles. By applying a techno-economic analysis, investment recovery periods of the considered re-purposing technologies are assessed, which range between two (GtP) and over ten (PtG) years. A sensitivity analysis accounting for current energy prices and technological advancements reveals capital expenditure has the highest impact on this Return-On-Investment period. Additionally, a case study considering the Austrian energy grids is performed to account for the grid impact of integrating these technologies at former CFPP sites. Thus, it is found that the investigated sector coupling technologies have the potential to compensate for grid congestions even in profit-optimised operation.

AB - The high emission intensity of coal-fired power plants (CFPP) leads to the inevitable next step towards energy transition, the coal phase-out. One challenge is the subsequent use of still-functioning assets. Re-purposing these assets avoids value loss and creates new opportunities for coal regions. Therefore, this study considers the sector coupling technologies Power-to-Gas (PtG) and Gas-to-Power (GtP) as re-purposing options. First, a multi-variable Mixed-Integer Linear Programming optimisation model is established. This model includes the participation of the plant in the current (2020) and future (2030, 2040) electricity and natural gas spot-markets and the balancing power market while fulfilling existing contracts, and allows for determining the re-purposing technologies' operating profiles. By applying a techno-economic analysis, investment recovery periods of the considered re-purposing technologies are assessed, which range between two (GtP) and over ten (PtG) years. A sensitivity analysis accounting for current energy prices and technological advancements reveals capital expenditure has the highest impact on this Return-On-Investment period. Additionally, a case study considering the Austrian energy grids is performed to account for the grid impact of integrating these technologies at former CFPP sites. Thus, it is found that the investigated sector coupling technologies have the potential to compensate for grid congestions even in profit-optimised operation.

U2 - 10.1049/esi2.12087

DO - 10.1049/esi2.12087

M3 - Article

VL - 5.2023

SP - 95

EP - 118

JO - IET Energy systems integration

JF - IET Energy systems integration

SN - 2516-8401

IS - 1

ER -