A research cooperation of leading institutes in energy research
BFH heads one of the leading battery research and development centres in Switzerland and takes part in three Swiss competence center for energy research: SCCER-Storage, SCCER-Mobility and SCCER-Grids.
CSEM hosts a national competence center for silicon-based photovoltaics and is active in Energy Systems research. CSEM also participates in two Swiss Competence Center of Energy Research as cooperation partner: SCCER-Grids and SCCER FEEB&D.
At ESReC, we share the vision that electrical energy storage is not only a key driver for the electrification of transport but will also play a vital role in catalyzing the integration of renewable energy sources. To exploit such systems in an efficient and economic manner, ESReC has set up a common research infrastructure for the testing and characterization of electrochemical storage systems.
- Electrical and thermal characterization of cells, modules and packs
- Simulation and modelling
- SoC and SoH algorithm development
- BMS hardware and software development
- Battery storage system assessment, dimensioning and development
- Battery integration in electric vehicles and buildings
Cell and module test equipment
- Bio-Logic BCS-815 battery cell tester with integrated EIS; 24 channels, 9 V, 15 A; EIS: 10 kHz-10 mHz
- PEC SBT10050 battery module test bench, 12 channels, 100V, 50A
- PEC ACT0550 battery cell test bench, 60 channels, 5V, 50A
- Fuelcon Evaluator B-70414 battery and cell test bench, 7 channels, 5/35/100V, 50A
- Gamry Reference 3000 electrochemical impedance spectrometer
- 1 Angelantoni ATT DM1200T temperature chambers, 1100 L, -45 °C to 180 °C
- 2 Vötsch VT4011 temperature chambers, 110 L, -40 °C to > 70 °C
- 1 Vötsch VT4004 temperature chamber, 37 L, -40 °C to > 70 °C
- 3 ESPEC ARU- 1100 temperature chambers, 1100 L, -40 °C to > 70 °C
- 1 ESPEC LU-114 temperature chamber, 105 L, -20 °C to > 70 °C
- 1 CTS DE 54-QS temperature chamber, 400 L, 0 °C to > 70 °C
- 1 Binder MKF-720 climatic chamber, 735 L, -40 °C to > 70 °C
- 1 Swissterminal 10’ Reefer refrigerated container, 12’445 L, -40 °C to 30 °C
BMS test equipment
- BMS-HIL tester
Selected results from our public research activities
The role of battery models in investment appraisal
Advanced ESS control strategy for end-users energy services
Battery Cycle Life Assessment through High-Precision Coulombic Efficiency Measurements
A hybrid battery solution
BMS HIL Test Platform – Cell, module and pack simulation environment
Application-independent protocol for predicting the efficiency of BESS
Prosumer-Lab Test Bench – The smart home in the lab
Electrochemical Impedance Spectroscopy for modeling of lithium-ion batteries
Multi-MPPT PV Inverter Test Stand
Swiss Energy Storage Overview: Overview of the Swiss electrical energy storage landscape from pumped-hydro systems to MWh-sized batteries for ancillary services and several pilot power plants. It also provides a list of commercially available PV-battery systems in Switzerland.
PV hosting capacity analysis tool: Open-source tool to estimate the PV hosting capacity of your electrical network under specific solar and network configurations, also including support for inclusion of battery systems.
- C. Brivio, P. Iurilli, E. Namor, P. J. Alet, A. Hutter, “Les bons modèles pour les bonnes décisions“, bulletin.ch, 23.04.19.
- A. Hutter, N. Koch, Y. Stauffer, and T. Gorecki, “Untersuchung zur Eigenverbrauchsoptimierung,” bulletin.ch, vol. 8/2019, Aug. 2019.
- C. Brivio, V. Musolino, P.-J. Alet, M. Merlo, A. Hutter, and C. Ballif, “Application-independent protocol for predicting the efficiency of lithium-ion battery cells in operations,” J. Energy Storage, vol. 15, 2018.
- C. Brivio, “Battery energy storage systems: modelling, applications and design criteria,” “Doctoral Diss., 2017.
- S. Barcellona, L. Piegari, V. Musolino, and C. Ballif, “Economic viability for residential battery storage systems in grid-connected PV plants,” IET Renewable Power Generation, Aug. 2017.
- C. Brivio, V. Musolino, P. J. Alet, M. Merlo, A. Hutter, and C. Ballif, “Analysis of lithium-ion cells performance, through novel test protocol for stationary applications,” in 2017 6th International Conference on Clean Electrical Power (ICCEP), 2017, pp. 410–415.
- D. Falabretti, M. Moncecchi, C. Brivio, M. Delfanti, M. Merlo, and V. Musolino, “IoT-oriented management of distributed energy storage for the primary frequency control,” in 2017 IEEE International Conference on Environment and Electrical Engineering and 2017 IEEE Industrial and Commercial Power Systems Europe (EEEIC / I CPS Europe), 2017, pp. 1–6.
- H. Huo, Y. Xing, M. Pecht, B. J. Züger, N. Khare, A. Vezzini, “Safety Requirements for Transportation of Lithium Batteries”, Energies 2017, 10(6), 793
- Andrea Vezzini und Benno J. Züger, “Prosumenten als dezentrale und smarte «Powerstation,” asut-Bulletin 06/2017
- V. Musolino, C. Rod, P. J. Alet, A. Hutter, and C. Ballif, “Improved ramp-rate and self consumption ratio in a renewable-energy-based DC micro-grid,” in 2017 IEEE Second International Conference on DC Microgrids (ICDCM), Nüremberg, 2017, pp. 564–570.
- B. J. Züger, Batteriestudie armasuisse, April 2017
- A. Vezzini, Kapitel 10.3 Lithiumionen-Akkumulatoren aus dem Buch «Elektrische Energieversorgung 2» 4. Auflage von V. Crastan
- S. Barcellona, L. Piegari, and V. Musolino, “Correct sizing of a storage unit for a residential PV plant,” in 5th IET International Conference on Renewable Power Generation (RPG) 2016, 2016, pp. 1–7.
- A. Vezzini, M. Höckel, “Bald Netzparität bei Batterien? PV-Anlagen und Speicher als Grundlage des Smart-Energy-Building”, VSE Bulletin 08/16
- C. Brivio, S. Mandelli, and M. Merlo, “Battery energy storage system for primary control reserve and energy arbitrage,” Sustain. Energy, Grids Networks, vol. 6, pp. 152–165, 2016.
- P.-J. Alet et al., “Forecasting and Observability: Critical Technologies for System Operations with High PV Penetration,” in 32nd European Photovoltaic Solar Energy Conference and Exhibition, Munich, 2016.
Research projects (public funds):
- BATMAN (Innosuisse project, 2019-2020) – Smart battery management for enhanced balancing and diagnostic of battery cells.
- BESTRADE (Innosuisse project, 2019-2020) – Battery energy storage for optimal renewable power trading.
- BESTIMATOR (Innosuisse feasibility study – 2018) – Data-driven inline estimators of the state of charge and state of health of batteries.
- Prosumer-Lab (SFOE pilot & demonstration project, 2016-2019, see also ENERGEIA 5/2016) – Influence of novel strategies and components of the energy management of grid-integrated, smart buildings on the stability and quality of the house and distribution grids.
- Hyperbat (Fonds SIG, 2016-2018, see also page 7 of Annual Report 2016) – Hybrid battery storage system.
- SwissTrolley plus (SFOE lighthouse project, 2015-2018) – Lifespan analysis and modeling of a high-performance battery in a fully electric trolleybus in the city of Zurich.
- eDumper (SFOE demonstration project, 2015-2018) – Construction and demonstration of the world’s largest electrically powered vehicle.
- Hospital catering truck (Innosuisse project, 2015-2018) – Mobile, on-the-spot Breakfast Catering: Development and Trialling of an Innovative Patient Catering Model to enhance Cost- and Time Efficiency in Swiss hospitals.
- SBB battery (SFOE pilot project, 2014-2017) – Design and development of a battery for electrical power in SBB-railway carriages.