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Prof. Dr. Raimund Brotsack, Dipl.-chem.

Erneuerbare Energien
Energiespeicherung
Power to Gas mit Methanisierung

Professor

Studiengangsleiter Industrial Engineering; Laborleitung Chemielabor ECRI, Leiter des Labors und Technikums für mikrobiologische Methanisierung am Technologie Zentrum Energie (Kooperation THD mit HAW Landshut)

D 222

0991/3615-491

Publikationen

Sortierung:

Zeitschriftenartikel

Robert Bauer
Dominik Schopf
Grégoire Klaus
Raimund Brotsack
Javier Valdés

Energy Cell Simulation for Sector Coupling with Power-to-Methane: A Case Study in Lower Bavaria

In: Energies vol. 15 pg. 2640.

(2022)

DOI: 10.3390/en15072640

Abstract anzeigen

In this study, the possibility of sector coupling with biological Power-to-Methane to support and stabilize the energy transition of the three major sectors of electricity, heat, and gas was addressed. For this purpose, the energy cell simulation methodology and the Calliope tool were utilized for energy system optimization. This combination provides detailed insights into the existing dependencies of consumers and fossil and renewable energy suppliers on a local scale. In this context, Power-to-Methane represents an efficient technology for quickly and effectively exploiting unused electricity potential for various sectors and consumers. It was found that, even in regions with low wind levels, this surplus electricity potential already exists and depends on various influencing factors in very different ways. The solar influence on these potentials was considered in connection with gas-fired cogeneration plants for district heating. It was found that the current heat demand for district heating produces a large amount of electricity and can generate surplus electricity in the winter. However, in the summer, large amounts of usable waste heat are dissipated into the environment, owing to the low consumption of district heat. This problem in the heat sector could be reduced by the expansion of photovoltaics, but this would require further expansion of storage or conversion systems in the electricity sector. This demonstrates that the consideration of several sectors is necessary to reflect the complexity of the sector coupling with Power-to-Methane properly.

Europan Campus Rottal-Inn
TC Freyung
NACHHALTIG

Vortrag

Robert Bauer
Grégoire Klaus
Raimund Brotsack
Javier Valdés

Biomethanation: A keystone for new energy solutions

In: Ecomondo - International trade fair for material and energy

Rimini, Italy

07.-11.11.2022 (2022)

Europan Campus Rottal-Inn
NACHHALTIG

Vortrag

Robert Bauer
Grégoire Klaus
Raimund Brotsack
Javier Valdés

Power-to-Methane: the technology for sector coupling

In: Energytech - 4th International Conference on Renewable Energy, Resources & Sustainable Technologies.

Rome, Italy

14.-15.11.2022 (2022)

Europan Campus Rottal-Inn
NACHHALTIG

Vortrag

Bernhard Bleyer
Jennifer Huber
Raimund Brotsack
Herbert Fischer
Anna Marquardt
Christian Rester
Roland Zink

Bildung für nachhaltige Entwicklung an der Technischen Hochschule Deggendorf . Posterpräsentation

In: Netzwerktreffen Hochschule und Nachhaltigkeit Bayern im Bayerischen Staatsministerium für Umwelt und Verbraucherschutz (StMUV) zum Thema "Bildung für nachhaltige Entwicklung - Wie kann die Implementierung gelingen?"

München

16.07.2018 (2018)

Angewandte Wirtschaftswissenschaften
Angewandte Gesundheitswissenschaften
Angewandte Naturwissenschaften und Wirtschaftsingenieurwesen
TC Freyung
NACHHALTIG

Beitrag in Sammelwerk/Tagungsband

Florian Karl
Roland Zink
Raimund Brotsack

Dezentralisierung des Energiesystems als Herausforderung für die raumzeitliche Integration von Power-to-Mobility-Anlagen . Ein Konzeptentwurf

pg. 159-175.

Linz, Österreich

(2017)

Elektrotechnik und Medientechnik
NACHHALTIG

Beitrag in Sammelwerk/Tagungsband

Florian Karl
Roland Zink
Raimund Brotsack
Y. Gmach
K. Seebauer

Spatio-temporal modelling of electrical supply systems to optimize the site planning process for renewable energies - the case study Power-to-Mobility

vol. 97 pg. 92-99.

(2016)

Abstract anzeigen

The energy-transformation towards renewable energies requires also storage systems to ensure security of supply. Motivated by strategies to implement renewables up to 100% at a regional scale, this paper presents a simulation of the power production from a virtual power plant based on 13 photovoltaic plants to integrate the “Power-to-Mobility”-technology, an innovative storage-technology to compensate fluctuating power production. The aim is to develop a simulation methodology with spatial-temporal and electrical parameters for a better management of the storage system. The project is work in progress but first results of the simulation show synergies between virtual power plants and Power-to-Mobility.

Elektrotechnik und Medientechnik
NACHHALTIG

Projekte

DanuP-2-Gas (https://danup2gas.eu/info/project)

Labore

Labor Chemie ECRI / Labor und Technikum für mikrobiologische Methanisierung am Technologiezentrum Energie

Kernkompetenzen

Energiespeicherung

Power to Gas
biologische Methanisierung
Bio-Wasserstoff