Oxford PV collaborates with HZB to move perovskite solar cells closer to commercialisation

Oxford PV – The Perovskite Company's industrial site in Brandenburg an der Havel, Germany where the company is working rapidly to transfer its advanced perovskite on silicon tandem solar cell technology to an industrial scale process.

Oxford PV – The Perovskite Company's industrial site in Brandenburg an der Havel, Germany where the company is working rapidly to transfer its advanced perovskite on silicon tandem solar cell technology to an industrial scale process. © Oxford PV

Perovskite solar technology leader Oxford PV collaborates with leading German research centre to support the accelerated transfer of its technology into silicon cell manufacturing lines.

Oxford PVTM – The Perovskite CompanyTM, the leader in the field of perovskite solar cells, today announced its collaboration with Helmholtz-Zentrum Berlin (HZB), the leading German research centre focused on energy materials research.

Oxford PV has made considerable progress in transferring its advanced perovskite on silicon tandem solar cell technology from its laboratory in Oxford, UK to an industrial scale process at its site in Brandenburg an der Havel, Germany.

HZB’s extensive expertise in silicon heterojunctions solar cell technology, will support Oxford PV to further optimise its perovskite on silicon tandem solar cell technology, and demonstrate production scale up, to ensure ease of integration into large scale silicon solar cell and module production.

“Working with HZB to understand solar cell manufacturers’ silicon cells, will allow Oxford PV’s perovskite on silicon tandem formation to be fully optimised, to ensure the most efficient tandem solar cell, and the easy transfer of our technology into our commercial partner’s industrial processes, commented Chris Case, Chief Technology Officer, at Oxford PV,

“Oxford PV is now in the final stage of commercialising its perovskite photovoltaic solution, which has the potential to enable efficiency gains that will transform the economics of silicon photovoltaic technology globally.”

Rutger Schlatmann, Director of the PVcomB institute at HZB, said, “HZB believe that perovskites present a significant opportunity to the future of photovoltaics. For this reason, at our new innovation lab - HySPRINT, we have significantly increased our expertise and attracted some of the most promising young scientists in this field. HZB’s collaboration with Oxford PV is strategically important to the institute, as Oxford PV is the ideal partner to further develop our solar cell technology knowledge and help support the commercialisation of tandem silicon perovskite photovoltaic cells.”

More Information:

  • Oxford PV
  • PVcomB
  • HySPRINT-a Helmholtz Innovation Lab

Oxford PV/HZB

  • Copy link

You might also be interested in

  • Metallic nanocatalysts: what really happens during catalysis
    Science Highlight
    10.09.2025
    Metallic nanocatalysts: what really happens during catalysis
    Using a combination of spectromicroscopy at BESSY II and microscopic analyses at DESY's NanoLab, a team has gained new insights into the chemical behaviour of nanocatalysts during catalysis. The nanoparticles consisted of a platinum core with a rhodium shell. This configuration allows a better understanding of structural changes in, for example, rhodium-platinum catalysts for emission control. The results show that under typical catalytic conditions, some of the rhodium in the shell can diffuse into the interior of the nanoparticles. However, most of it remains on the surface and oxidises. This process is strongly dependent on the surface orientation of the nanoparticle facets.
  • KlarText Prize for Hanna Trzesniowski
    News
    08.09.2025
    KlarText Prize for Hanna Trzesniowski
    The chemist has been awarded the prestigious KlarText Prize for Science Communication by the Klaus Tschira Foundation.
  • Shedding light on insulators: how light pulses unfreeze electrons
    Science Highlight
    08.09.2025
    Shedding light on insulators: how light pulses unfreeze electrons
    Metal oxides are abundant in nature and central to technologies such as photocatalysis and photovoltaics. Yet, many suffer from poor electrical conduction, caused by strong repulsion between electrons in neighboring metal atoms. Researchers at HZB and partner institutions have shown that light pulses can temporarily weaken these repulsive forces, lowering the energy required for electrons mobility, inducing a metal-like behavior. This discovery offers a new way to manipulate material properties with light, with high potential to more efficient light-based devices.