Another innovative EU project with HZB participation kicked off

Symbol picture for BIPV (University of Zurich (Zh) - 100 kWp)

Symbol picture for BIPV (University of Zurich (Zh) - 100 kWp) © Planeco GmbH

The CUSTOM-ART consortium consists of 17 academic and industrial partners, involving world leading groups and main European actors involved in the development of kesterite technologies. It leads an ambitious and disruptive project for the development and demonstration of the next generation of building and product integrated photovoltaic modules (BIPV and PIPV) based on abundant thin-film materials. The project started September, 1st 2020 and will run for 3.5 years.

HZB contributes to the technology development by systematically investigating the structure-function relationship of kesterite-type materials as one of quaternary chalcogenide compound semiconductors. HZB will study the influence of alkali doping on the point defect scenario and level of structural disorder. These studies will rely on detailed structural investigations of kesterite-type monograins (based on neutron diffraction and multiple energy anomalous X-ray diffraction). Also HZB will contribute with combinatorial high-throughput materials optimization applying especially advanced optoelectronic analytics. HZB has a share of 550 TEUR out of the total funding based on budgeted total costs of 8M€.

G. Ehlgen

  • Copy link

You might also be interested in

  • Detailed insights at BESSY II into the oxidation processes of copper
    Science Highlight
    02.09.2026
    Detailed insights at BESSY II into the oxidation processes of copper
    Before pure copper oxide builds up, complex superstructures such as ‘29’CuxO, are formed. The new results on the '29' CuxO superstructure have relevance for catalyst research and corrosion protection in the development of safe copper containers for nuclear waste repositories.
  • BESSY II: Evaporated perovskites in tandem solar cells improved
    Science Highlight
    26.08.2026
    BESSY II: Evaporated perovskites in tandem solar cells improved
    Perovskite-silicon tandem solar cells achieve significantly higher efficiencies than silicon solar cells on their own. One particularly attractive method is co-evaporation of the perovskite precursor molecules on top of the silicon subcell. Scientists at HZB have analysed film growth on the nanoscale at BESSY II and found a new way to improve the quality of the perovskite layer: adding a thin seed layer of caesium chloride between the two sub-cells promotes uniform perovskite growth and suppresses the formation of undesired lead iodide at the interface.
  • Hatice Mutlu appointed to the Helmholtz Institute HIPOLE in Jena
    News
    19.08.2026
    Hatice Mutlu appointed to the Helmholtz Institute HIPOLE in Jena
    Prof. Dr Hatice Mutlu is the new professor of sustainable polymer chemistry at HIPOLE Jena, the Helmholtz Institute for Polymers in Energy Applications. On 17 August 2026, she visited the HZB campus in Berlin-Adlershof including the BESSY II lightsource and discussed future collaboration with researchers and the board of directors.