TY  - CPAPER
U1  - Konferenzveröffentlichung
A1  - Schicktanz, Matthias
A1  - Moquete, Dorothea
A1  - Gonzalez-Salazar, Miguel
ED  - ECOS International Society, 
T1  - A Methodological Approach to Analyze Operation Strategies in a 100% Renewable Energy System with Multiple Energy Outputs in an Urban Environment
T2  - Proceedings of the 38th International Conference on Efficiency, Cost, Optimization, Simulation and Environmental Impact of Energy Systems (ECOS 2025), 2025, Paris
N2  - This study presents a method and graphical representation for optimizing the operational strategy of urban energy systems to simultaneously meet electricity and heat demands. Building on Part 1, "Designing a Fully Renewable Urban Energy System: The Meaning of Sector Coupling and Hydrogen," this paper addresses the previously open question of effectively operating a complex structure of multiple energy converters. By introducing a two-dimensional merit order principle, the study systematically prioritizes the use of energy converters based on their efficiency and role in balancing heat, electricity, and hydrogen demands. Visualized through a graphical representation, this approach offers an intuitive understanding of how different energy converters interact to meet demand states, elucidating why specific converters are employed under varying conditions. By providing valuable insights into cross-sectoral energy integration, this methodology serves as both a planning tool and educational resource. It highlights the optimal deployment of specific technologies, with applicability extending to other coupled energy systems, such as heating and cooling systems in diverse contexts.
AB  - This study presents a method and graphical representation for optimizing the operational strategy of urban energy systems to simultaneously meet electricity and heat demands. Building on Part 1, "Designing a Fully Renewable Urban Energy System: The Meaning of Sector Coupling and Hydrogen," this paper addresses the previously open question of effectively operating a complex structure of multiple energy converters. By introducing a two-dimensional merit order principle, the study systematically prioritizes the use of energy converters based on their efficiency and role in balancing heat, electricity, and hydrogen demands. Visualized through a graphical representation, this approach offers an intuitive understanding of how different energy converters interact to meet demand states, elucidating why specific converters are employed under varying conditions. By providing valuable insights into cross-sectoral energy integration, this methodology serves as both a planning tool and educational resource. It highlights the optimal deployment of specific technologies, with applicability extending to other coupled energy systems, such as heating and cooling systems in diverse contexts.
KW  - Energy Dispatch Optimization
KW  - Operational Regimes
KW  - Sector Coupling
KW  - Energy System Visualization
KW  - Merit-Order
Y1  - 2025
ER  -