Smart Energy System Control Laboratory (SESCL)

Markus Breig (KIT)
In the control room of the SESCL the experiments can be planned, performed and analyzed. (Photo: Markus Breig, KIT)

The Smart Energy System Control Laboratory combines theory with practice. Many questions of the energy transition can only be answered with extensive simulations and complex models of energy networks, feeders, storage facilities and consumers. Precise models of the plant components are an important prerequisite for this. The physical presence of the plants in the SESCL creates a constant reference to reality and thus facilitates the implementation of the research results in real network environments. Since the experimental field is galvanically isolated from the public power grid, control strategies in borderline areas can be approved and investigated there. In addition, operating points that approach the stability limits can be controlled. Such experiments would not be permitted in the public grid.

The energy transition cannot be planned on computers alone, nor can all new ideas be tested in the public power grid. SESCL was established with funds from the Baden-Württemberg Ministry of Science, Research and the Arts (MWK). In SESCL, representatives of the most important machines and devices of power grids and heat supply systems are installed. Because electricity will be of great importance in the heating market and for mobility in the future, heat pumps and charging stations, for example, were purchased and implemented.

Simon Waczowicz (KIT)
Energy systems within the Smart Energy System Control Laboratory. (Photo: Simon Waczowicz, KIT)
Markus Breig (KIT)
The busbar matrix interconnects all the systems in the SESCL in order to quickly implement a wide variety of experiments. (Photo: Markus Breig, KIT)

Of course, only a limited number of components can be physically connected to a network in a laboratory environment. Therefore, adjacent power grids are simulated using Power Hardware in the Loop (PHIL) systems. Behind this there are fast computers and electronics that can realize a calculated power consumption or power injection. Within SESCL, the busbar matrix is the central element for the intelligent connection of the energy technology components, such as power generators, consumers, storage devices, lines and other network equipment. The busbar matrix allows new experiments to be interconnected and thus configured very quickly. 27 switchgear cabinets are filled by the required switchgear.

Research topics

  • Integration of Distributed Renewable Energy Resources (DER) into a microgrid
  • System stability analysis (voltage, frequency and rotor angle stability) in converter dominated grids
  • Validation of new control strategies
  • Behaviour of a microgrid in relation to the power grid
  • Behaviour of largely autarkic cells (e.g. experimental houses) towards the microgrid

 

Equipment

→ to the detailed SESCL laboratory equipment

Busbar matrix as the central connecting element of all electrical components
  • AC and DC busbar
  • High frequency measurement of all connected electrical components
  • Automation system
LLEC experimental buildings including their individual energy technology systems
  • Heat pump house
  • Power House
  • Gas2Heat house
Consumer
  • RLC loads
  • Asynchronous machine
  • Lighting installation
  • Consumer as power hardware-in-the-loop system
Producer
  • Network connection
  • Gas generator
  • Micro-CHP
  • Photovoltaic systems
  • Power amplifier as power hardware-in-the-loop system
Prosumer
  • Supercaps
  • Lithium-ion battery storage
  • Flywheel mass storage
Reactive power components
  • Capacitors
  • Inductors
  • Phase shifter
  • FACTS (Flexible Alternating Current Transmission System)
Mobility
  • Battery electric vehicles
  • (V2G) charging stations for electric mobility
Network resources and other components
  • Reproductions of management
  • Transformers (rONT)
  • AC/DC converters
  • Converter

→ to the detailed SESCL laboratory equipment

 

Selected scientific publications


  1. A Novel Approach for Removing Decaying DC Offset from Fault Current Signals Using Cumulative Sum – Fast Moving Average (CumSum-FMA) Hybrid Algorithm
    Abel, P.; Wiegel, F.; Kyesswa, M.; Waczowicz, S.; Hagenmeyer, V.
    2024. 2024 IEEE 15th International Symposium on Power Electronics for Distributed Generation Systems (PEDG), Luxemburg, 23rd-26th June 2024, 1–5, Institute of Electrical and Electronics Engineers (IEEE). doi:10.1109/PEDG61800.2024.10667422Full textFull text of the publication as PDF document
  2. Grid supporting nonlinear control for AC-coupled DC Microgrids
    Ekin, Ö.; Perez, F.; Wiegel, F.; Hagenmeyer, V.; Damm, G.
    2024. 2024 IEEE Sixth International Conference on DC Microgrids (ICDCM), Columbia, SC, USA, 05-08 August 2024, Institute of Electrical and Electronics Engineers (IEEE). doi:10.1109/ICDCM60322.2024.10664838
  3. Hardware-Based Microgrid Coupled to Real-Time Simulated Power Grids for Evaluating New Control Strategies in Future Energy Systems
    Kyesswa, M.; Wiegel, F.; Wachter, J.; Kühnapfel, U.; Waczowicz, S.; Hagenmeyer, V.
    2024. arxiv. doi:10.48550/arXiv.2409.01809Full textFull text of the publication as PDF document
  4. Forecasting Electric Vehicle Charging Behavior in Workplace Charging Infrastructure with Limited Privacy-Restricted Real Data
    Stein, A.; Beichter, S.; Hage, J.; Beichter, M.; Schwarz, B.; Waczowicz, S.; Hiller, M.; Hagenmeyer, V.; Munzke, N.; Mikut, R.
    2024. 2024 IEEE Transportation Electrification Conference and Expo (ITEC), 7 S., Institute of Electrical and Electronics Engineers (IEEE). doi:10.1109/ITEC60657.2024.10598951Full textFull text of the publication as PDF document
  5. Experimental Analysis of Immersion & Invariance Adaptive Control for an Interleaved DC/DC Boost Converter with Unknown Load Type
    Wachter, J.; Gröll, L.; Hagenmeyer, V.
    2023. 2023 IEEE PES Innovative Smart Grid Technologies Europe (ISGT EUROPE), 6 S., Institute of Electrical and Electronics Engineers (IEEE). doi:10.1109/ISGTEUROPE56780.2023.10407194Full textFull text of the publication as PDF document
  6. Application of Model-Free Control to Reduce the Total Harmonic Distortion of Inverters
    Wachter, J.; Gröll, L.; Hagenmeyer, V.
    2023. 2023 8th IEEE Workshop on the Electronic Grid (eGRID), Karlsruhe, Germany, 16-18 October 2023, Institute of Electrical and Electronics Engineers (IEEE). doi:10.1109/eGrid58358.2023.10380817Full textFull text of the publication as PDF document
  7. Towards a Real-World Dispatchable Feeder
    Beichter, S.; Beichter, M.; Werling, D.; Galenzowski, J.; Weise, V.; Hildenbrand, C.; Wiegel, F.; Mikut, R.; Waczowicz, S.; Hagenmeyer, V.
    2023. 2023 8th IEEE Workshop on the Electronic Grid (eGRID), Karlsruhe, Germany, 16-18 October 2023, 1–6, Institute of Electrical and Electronics Engineers (IEEE). doi:10.1109/eGrid58358.2023.10380834Full textFull text of the publication as PDF document
  8. Experimental validation of demand side response rates for frequency control
    Casasola-Aignesberger, L.; Wiegel, F.; Waczowicz, S.; Hagenmeyer, V.; Martinez, S.
    2023. 2023 8th IEEE Workshop on the Electronic Grid (eGRID), Karlsruhe, Germany, 16-18 October 2023, 1–6, Institute of Electrical and Electronics Engineers (IEEE). doi:10.1109/eGrid58358.2023.10380814Full textFull text of the publication as PDF document
  9. Survey of real-world grid incidents – opportunities, arising challenges and lessons learned for the future converter dominated power system
    Wachter, J.; Gröll, L.; Hagenmeyer, V.
    2023. IEEE Open Journal of Power Electronics, 5, 50–69. doi:10.1109/OJPEL.2023.3343167Full textFull text of the publication as PDF document
  10. A Real-Time PHIL Implementation of a Novel Nonlinear Distributed Control Strategy for a Multi-Terminal DC Microgrid
    Ekin, Ö.; Perez, F.; Damm, G.; Hagenmeyer, V.
    2023. 2023 IEEE Belgrade PowerTech, Belgrade, Serbia, 25-29 June 2023, Institute of Electrical and Electronics Engineers (IEEE). doi:10.1109/PowerTech55446.2023.10202843
  11. Comparison of Four-Switch Buck-Boost and Dual Active Bridge Converter for DC Microgrid Applications
    Ekin, Ö.; Arena, G.; Waczowicz, S.; Hagenmeyer, V.; Carne, G.
    2022. 2022 IEEE 13th International Symposium on Power Electronics for Distributed Generation Systems (PEDG), 1–6, Institute of Electrical and Electronics Engineers (IEEE). doi:10.1109/PEDG54999.2022.9923074Full textFull text of the publication as PDF document
  12. Smart Energy System Control Laboratory : a fully-automated and user-oriented research infrastructure for controlling and operating smart energy systems = Smart Energy System Control Laboratory : hochgradig automatisierte und nutzerorientierte Forschungsinfrastruktur zur Steuerung und zum Betrieb intelligenter Energiesysteme
    Wiegel, F.; Wachter, J.; Kyesswa, M.; Mikut, R.; Waczowicz, S.; Hagenmeyer, V.
    2022. at - Automatisierungstechnik, 70 (12), 1116–1133. doi:10.1515/auto-2022-0018Full textFull text of the publication as PDF document
  13. Comparison of Four-Switch Buck-Boost and Dual Active Bridge Converter for DC Microgrid Applications
    Ekin, Ö.; Arena, G.; Waczowicz, S.; Hagenmeyer, V.; Carne, G.
    2022, June 26. 13th International Symposium on Power Electronics for Distributed Generation Systems (PEDG 2022), Kiel, Germany, June 26–29, 2022 Full textFull text of the publication as PDF document
  14. A Lightweight User Interface for Smart Charging of Electric Vehicles: A Real-World Application
    Meisenbacher, S.; Schwenk, K.; Galenzowski, J.; Waczowicz, S.; Mikut, R.; Hagenmeyer, V.
    2021. 2021 9th International Conference on Smart Grid and Clean Energy Technologies (ICSGCE), 57–61, Institute of Electrical and Electronics Engineers (IEEE). doi:10.1109/ICSGCE52779.2021.9621604Full textFull text of the publication as PDF document
  15. Adaptive Feedforward Control for DC/DC Converters in Microgrids - A Power Hardware in the Loop Study
    Wachter, J.; Gröll, L.; Hagenmeyer, V.
    2021. 9th International Conference on Smart Grid (icSmartGrid), 29th June - 01st July 2021, Sebútal, Portugal, 49–56, Institute of Electrical and Electronics Engineers (IEEE). doi:10.1109/icSmartGrid52357.2021.9551250Full textFull text of the publication as PDF document
  16. Smart Charging of Electric Vehicles with Cloud-based Optimization and a Lightweight User Interface – A Real-World Application in the Energy Lab 2.0: Poster
    Meisenbacher, S.; Schwenk, K.; Galenzowski, J.; Waczowicz, S.; Mikut, R.; Hagenmeyer, V.
    2021. e-Energy ’21: The Twelfth ACM International Conference on Future Energy Systems Virtual Event Italy 28 June 2021- 2 July 2021, 284–285, Association for Computing Machinery (ACM). doi:10.1145/3447555.3466571Full textFull text of the publication as PDF document
  17. Power Hardware In the Loop infrastructure at KIT
    Hubschneider, S.; Waczowicz, S.; Wiegel, F.; Karrari, S.; Sousa, W. T. B. de; Carne, G. de; Geisbüsch, J.; Hiller, M.; Leibfried, T.; Hagenmeyer, V.; Noe, M.
    2020, June 18. RT20: Opal-RT’s 12th Conference on Real-Time Simulation (2020), Online, June 18, 2020 Full textFull text of the publication as PDF document
  18. Information and communication technology in energy lab 2.0: Smart energies system simulation and control center with an open-street-map-based power flow simulation example
    Hagenmeyer, V.; Cakmak, H. K.; Düpmeier, C.; Faulwasser, T.; Isele, J.; Keller, H. B.; Kohlhepp, P.; Kühnapfel, U.; Stucky, U.; Waczowicz, S.; Mikut, R.
    2016. Energy Technology, 4 (1), 145–162. doi:10.1002/ente.201500304

Contact persons

Friedrich Wiegel
Friedrich Wiegel
Head of Smart Energy System Control Laboratory (SESCL)

friedrich wiegel does-not-exist.kit edu