Helmholtz Institute for Polymers in Energy Applications (HIPOLE Jena) Inaugurated

Wolfgang Tiefensee, Thuringia's Minister of Economics, Science and Digital Society, Prof. Dr Schubert, from Friedrich Schiller University Jena, founding director and spokesperson of HIPOLE and Prof. Dr Yan Lu (HZB), co-spokesperson of HIPOLE at the opening in Jena on 17 June 2024.

Wolfgang Tiefensee, Thuringia's Minister of Economics, Science and Digital Society, Prof. Dr Schubert, from Friedrich Schiller University Jena, founding director and spokesperson of HIPOLE and Prof. Dr Yan Lu (HZB), co-spokesperson of HIPOLE at the opening in Jena on 17 June 2024. © Nicole Nerger/Universität Jena

On June 17, 2024, the Helmholtz Institute for Polymers in Energy Applications (HIPOLE Jena) was officially inaugurated in Jena in the presence of Wolfgang Tiefensee, Minister for Economy, Science, and Digital Society of the Free State of Thuringia. The institute was founded by the Helmholtz Center Berlin for Materials and Energy (HZB) in cooperation with the Friedrich Schiller University Jena. It is dedicated to developing sustainable polymer materials for energy technologies, which are expected to play a key role in the energy transition and support Germany’s goal of becoming climate-neutral by 2045.

HIPOLE Jena focuses on the development of polymer-based batteries, polymer additives for perovskite solar cells, and sustainable materials for energy applications (see info box). These technologies promise efficient and environmentally friendly solutions for energy storage and conversion. The new institute is funded with 5.5 million euros annually by the Federal Ministry of Education and Research (BMBF) and the Free State of Thuringia.

Minister Tiefensee emphasized the importance of HIPOLE Jena at the opening: Research conducted here is highly relevant for the energy transition. He directly addressed the researchers at HIPOLE Jena: "We need your research. We need your move to innovation!" said Tiefensee.

Dr. Peter Schroth, Head of Division at the Federal Ministry of Education and Research, highlighted the strategic foresight of establishing a Helmholtz Institute for Polymers in Energy Applications in Jena: "The diverse academic and entrepreneurial environment in which HIPOLE Jena is located ensures excellent prospects for achieving outstanding research results that can be effectively applied."

Thanks to the advance efforts of the Free State of Thuringia, which began construction early, HIPOLE Jena was able to move into a modern laboratory building on the Landgrafen Campus of the University of Jena shortly after its founding. The laboratory rooms were equipped in the first half of 2024, and concrete research in the new labs began in early summer 2024. "We are extremely fast here," says Prof. Dr. Ulrich S. Schubert, founding director of HIPOLE Jena. "With HIPOLE Jena, we are able to give strong impulses to the development of new materials for energy technologies at an international top level." Prof. Bernd Rech, scientific director of HZB, adds that "the expertise in polymer chemistry and its applications at the University of Jena perfectly complements HZB’s experience in photovoltaics, battery research, and the latest methods for investigating chemical processes."

Info Box:

  • Polymer-based batteries use polymers (large molecules composed of many repeating chemical subunits) to create lightweight and flexible energy storage solutions. They have the potential to revolutionize the way we store energy.
  • Polymer additives for perovskite solar cells enhance the efficiency and durability of perovskite solar cells. These solar cells are made from cost-effective materials and can be applied to a variety of surfaces.
  • Sustainable materials for energy applications are developed to avoid the use of crude oil and provide environmentally friendly and efficient solutions for energy storage and conversion. This process at HIPOLE Jena is supported by cutting-edge research methods and artificial intelligence.

Note:

The new institute is funded with 5.5 million euros annually by the Federal Ministry of Education and Research (BMBF) and the Free State of Thuringia, as well as nearly 4.4 million euros by the Carl Zeiss Foundation (CZS). The CZS is financing a professorship for "Sustainable Molecular Catalysis and Light Energy Conversion" and a junior research group to study "Polymers in Energy Applications" until 2030.

Hannes Schlender

  • Copy link

You might also be interested in

  • New contact material boosts the efficiency of perovskite solar cells
    Science Highlight
    16.07.2026
    New contact material boosts the efficiency of perovskite solar cells
    A newly developed material for the electron contact improves the efficiency of single perovskite solar cells and perovskite/silicon tandem solar cells. The new material is based on a carborane molecule. It offers several advantages over the standard material C60, as shown by the study led by Steve Albrecht’s team. The new material has since been patented and is already commercially available.
  • BESSY II: New sample environment allows glimpse into thermocatalytic processes
    Science Highlight
    15.07.2026
    BESSY II: New sample environment allows glimpse into thermocatalytic processes
    A novel measurement cell allows, for the first time, soft and hard X-ray investigations under high pressures of up to 20 bar and temperatures of up to 400°C. This provides new insights into thermocatalytic processes, such as the Fischer-Tropsch synthesis for producing synthetic fuels. The development of the measurement cell is considered a significant achievement within the Care-O-Sene project.

  • Precision interface chemistry pushes perovskite solar cells beyond 26% efficiency
    Science Highlight
    14.07.2026
    Precision interface chemistry pushes perovskite solar cells beyond 26% efficiency
    An international research collaboration has developed a new molecular strategy for controlling one of the most critical interfaces in perovskite solar cells. The resulting solar cells reached a power conversion efficiency of 26.19% in the n i p architecture, together with strong operational stability under prolonged illumination and elevated temperature. The results have been published in the Journal of the American Chemical Society.