CoCo: Mitigation of Emerging Controller Conflicts in Multimodal Smart Energy Systems

Contact

University of Oldenburg
FK II – Department for Computer Science
Digitalized Energy Systems Group
D-26111 Oldenburg

Secretary:

Meike Burke

Regina Knippenberg

Industriestraße 11, Room 0-014

+49 (0) 441 - 798 2878

+49 (0) 441 - 798 2756

Head

Prof. Dr.-Ing. Astrid Niesse 

Industriestraße 11, Room 0-004

+49 (0) 441 - 798 2750

+49 (0) 441 - 798 2756

CoCo: Mitigation of Emerging Controller Conflicts in Multimodal Smart Energy Systems

Project Background

With the research in this project, we extend our work from our first DFG-project dealing with the : analysis of controller conflicts in multimodal Smart Grid systems using the concept of emergence in technical systems. While the identification and quantification of emerging controller conflicts in multimodal energy systems (MES) including gas, heat, electricity and coupling points has been in the focus of the first project, we will develop an approach to mitigate controller conflicts i.e. by means of cooperation in MES.              

The general research idea is to transfer the task of mitigating controller conflicts to mitigating conflicts between agents. This formulation allows us to apply methods from the field of game theory (GT), thus closing a gap between power system modeling and agent-based control using agent-based simulation. The interaction of controller agents in MES can be described as repetitive games in a dynamic environments. To avoid unrealistic preliminary condition of GT such as assuming fully observable environment and totally rational agents, we plan to use evolutionary game theory (EGT).

In EGT, agents have a mutable strategy in every iteration (called phenotype), even if this strategy is not the best strategy. Thus, strategies consist of a temporary choice of best-response and suboptimal response choices. In the context of multi-agent systems (MAS), this approach is consistent with exploration phases, where agents may follow suboptimal routes to learn about their environment and adapt themselves according to the dynamic of the environment. On the other hand, the natural selection leads to distinction or growing of some phenotypes. The outcome is the set of Evolutionary Stable Strategy (ESS). This ESS illustrates if the selected phenotypes lead to the emergence of cooperation as a conflict-free state in MES.

Emergence of the favorite level of cooperation can be reached in three steps: 1) individual learning 2) collective learning and 3) modifying regulatory settings. The first two steps necessitate to extend the developed model in the first phase of project with the ability to learn and ability to communicate. If some conflicts could not be mitigated by increasing the agents’ capabilities or via cooperation within the set of agents, a modification of the regulatory settings (i.e. the rules) can be suggested as a possibility to solve the problem of conflict emergence.

Results

Poster

Publications

  • Schrage, Rico and Nieße Astrid (2024). From Coupling to Resilience: Quantifying the Impact of Interconnection in Energy Carrier Grids, arXiv, arXiv:2407.01256 (Preprint)
  • Schrage, Rico., Sager, Jens., Hörding, J. P., & Holly, Stefanie (2024). mango: A modular python-based agent simulation framework. SoftwareX, 27, 101791.
  • Schrage, Rico (2023): The Role of Coupling Points for Self-Organized Multi-Energy Grid Operation. In: Abstracts of the 12th DACH+ Conference on Energy Informatics 2023 (6), S. 14–16.
  • Schrage, Rico; Nieße, Astrid (2023): Influence of adaptive coupling points on coalition formation in multi-energy systems. In: Appl Netw Sci 8 (1). DOI: 10.1007/s41109-023-00553-8.
  • Schrage, Rico; Tiemann, Paul Hendrik; Nieße, Astrid (2022): A Multi-Criteria Metaheuristic Algorithm for Distributed Optimization of Electric Energy Storage. In: SIGEnergy Energy Informatics Review 2 (4), S. 44–59. DOI: 10.1145/3584024.3584029.

Publications from the previous phase

  • Shahbakhsh, Arash; Nieße, Astrid (2020): Agent Based Modeling in Energy Systems. Parametrization of Coupling Points. In: International Federation of Automatic Control.
  • Shahbakhsh, Arash; Nieße, Astrid (2019): Modeling multimodal energy systems. In: at-Automatisierungstechnik 67 (11), S. 893–903.
  • Nieße, Astrid; Shahbakhsh, Arash (2018): Analyzing controller conflicts in multimodal smart grids - framework design. In: Energy Informatics, 1.

Software artifacts

The following software artifacts are fully or partially results of this project:

  • monee: Framework for calculating the steady-state energy flow and for solving optimization problems in coupled energy grids (gas, heat, electricity) – github.com/Digitalized-Energy-Systems/monee (entirely developed for the project)
  • Mango.jl: A modular framework for the rapid development of fast agent systems in Julia – github.com/OFFIS-DAI/Mango.jl, developed in collaboration with OFFIS e.V.
  • mango: A modular python-based agent simulation framework – github.com/OFFIS-DAI/mango, mainly developed at the OFFIS e.V. (majorly contributed to)
(Changed: 21 Aug 2024)  | 
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