Bernhard-Johannes Jesse
Bernhard-Johannes Jesse has a total of 18 co-authors. Here are the top co-authors by number of shared publications:
- Wilhelm Kuckshinrichs
Forschungszentrum Jülich, UE, Jülich, Germany
4 shared publications Gert Jan Kramer
Copernicus Institute of Sustainable Development, Utrecht University, Utrecht, The Netherlands
2 shared publications- Vinzenz Koning
Utrecht University
2 shared publications Annika Weiss
1 shared publication- Bastian Gillessen
Forschungszentrum Jülich, Institute of Energy and Climate Research—Systems Analysis and Technology Evaluation (IEK-STE), D-52425 Jülich, Germany
1 shared publication - Gert Jan Kramer
Utrecht University
1 shared publication
Latest Publications
- Open Access
- 26 November 2025
- Published by Elsevier in International Journal of Hydrogen Energy
- Vol. 198
Exploring the scale-up of a green hydrogen industry: An agent-based modeling approach
- 26 November 2025
- Published by Elsevier in International Journal of Hydrogen Energy
- Vol. 198
Open AccessExploring the scale-up of a green hydrogen industry: An agent-based modeling approach
- Open Access
- 30 July 2024
- Published by Springer Nature in Energy, Sustainability and Society
- Vol. 14 (1) , 1-14
Characterization of necessary elements for a definition of resilience for the energy system
Background: To reduce the effects of climate change, the current fossil-based energy system must transition to a low-carbon system based largely on renewables. In both academic literature and non-academic discourse concerning the energy transition, resilience is frequently mentioned as an additional objective or requirement. Despite its frequent use, resilience is a very malleable term with different meanings in different contexts. Main text: This paper seeks to identify how resilience is understood in the field of the energy system and whether there are similar aspects in the different ways the term is understood. To this end, we review more than 130 papers for definitions of energy system resilience. In addition, we use different aspects to categorize and examine these. The results paint a diverse picture in terms of the definition and understanding of resilience in the energy system. However, a few definition archetypes can be identified. The first uses a straightforward approach, in which the energy system has one clearly defined equilibrium state. Here, resilience is defined in relation to the response of the energy system to a disturbance and its ability to quickly return to its equilibrium. The second type of resilience allows for different equilibriums, to which a resilient energy system can move after a disruption. Another type of resilience focuses more on the process and the actions of the system in response to disruption. Here, resilience is defined as the ability of the system to adapt and change. In the papers reviewed, we find that the operational definition of resilience often encompasses aspects of different archetypes. This diversity shows that resilience is a versatile concept with different elements. Conclusions: With this paper, we aim to provide insight into how the understanding of resilience for the energy system differs depending on which aspect of the energy system is studied, and which elements might be necessary for different understandings of resilience. We conclude by providing information and recommendations on the potential usage of the term energy system resilience based on our lessons learned.
- 30 July 2024
- Published by Springer Nature in Energy, Sustainability and Society
- Vol. 14 (1) , 1-14
Open AccessCharacterization of necessary elements for a definition of resilience for the energy system
Background: To reduce the effects of climate change, the current fossil-based energy system must transition to a low-carbon system based largely on renewables. In both academic literature and non-academic discourse concerning the energy transition, resilience is frequently mentioned as an additional objective or requirement. Despite its frequent use, resilience is a very malleable term with different meanings in different contexts. Main text: This paper seeks to identify how resilience is understood in the field of the energy system and whether there are similar aspects in the different ways the term is understood. To this end, we review more than 130 papers for definitions of energy system resilience. In addition, we use different aspects to categorize and examine these. The results paint a diverse picture in terms of the definition and understanding of resilience in the energy system. However, a few definition archetypes can be identified. The first uses a straightforward approach, in which the energy system has one clearly defined equilibrium state. Here, resilience is defined in relation to the response of the energy system to a disturbance and its ability to quickly return to its equilibrium. The second type of resilience allows for different equilibriums, to which a resilient energy system can move after a disruption. Another type of resilience focuses more on the process and the actions of the system in response to disruption. Here, resilience is defined as the ability of the system to adapt and change. In the papers reviewed, we find that the operational definition of resilience often encompasses aspects of different archetypes. This diversity shows that resilience is a versatile concept with different elements. Conclusions: With this paper, we aim to provide insight into how the understanding of resilience for the energy system differs depending on which aspect of the energy system is studied, and which elements might be necessary for different understandings of resilience. We conclude by providing information and recommendations on the potential usage of the term energy system resilience based on our lessons learned.
- Open Access
- 5 December 2023
- Published by Elsevier in Energy Reports
- Vol. 11, 208-217
Stakeholder perspectives on the scale-up of green hydrogen and electrolyzers
- 5 December 2023
- Published by Elsevier in Energy Reports
- Vol. 11, 208-217
Open AccessStakeholder perspectives on the scale-up of green hydrogen and electrolyzers
- Open Access
Potential for Optimization in European Power Plant Fleet Operation
Energy policy makers need information about the greenhouse gas reduction potential that could be realized by changes to the operation of the currently existing European power plant fleet to enable short-term actions. Possible measures could reduce the climate impact of the European electricity system and, additionally, be realized quickly as new investments are avoided. In this paper, the Calliope based energy system model Stella of the European electricity system is presented and used for the first time, with the goal to quantify cost and CO emissions optimal operation strategies of the existing European power plant fleet. By applying the model to six scenarios the results show that the greenhouse gas emissions of the European power plant fleet could be reduced by more than 50% with little additional costs compared to today’s power generation mix. It is shown that historic power plant operation follows only economic considerations while not fully covering its climate impact. The results demonstrate to policy makers the scale of reduction potential that could be achieved by short-term actions.Open AccessPotential for Optimization in European Power Plant Fleet Operation
Energy policy makers need information about the greenhouse gas reduction potential that could be realized by changes to the operation of the currently existing European power plant fleet to enable short-term actions. Possible measures could reduce the climate impact of the European electricity system and, additionally, be realized quickly as new investments are avoided. In this paper, the Calliope based energy system model Stella of the European electricity system is presented and used for the first time, with the goal to quantify cost and CO emissions optimal operation strategies of the existing European power plant fleet. By applying the model to six scenarios the results show that the greenhouse gas emissions of the European power plant fleet could be reduced by more than 50% with little additional costs compared to today’s power generation mix. It is shown that historic power plant operation follows only economic considerations while not fully covering its climate impact. The results demonstrate to policy makers the scale of reduction potential that could be achieved by short-term actions. - Open Access
- 10 July 2019
- Published by Springer Nature in Energy, Sustainability and Society
- Vol. 9 (1) , 27
Adapting the theory of resilience to energy systems: a review and outlook
- 10 July 2019
- Published by Springer Nature in Energy, Sustainability and Society
- Vol. 9 (1) , 27
Open AccessAdapting the theory of resilience to energy systems: a review and outlook