Speeding up CIGS solar cell manufacture

The funding will go towards optimising a co-evaporation process at PVcomB used for producing CIGS layers for thin-film solar cells. Photo: HZB

The funding will go towards optimising a co-evaporation process at PVcomB used for producing CIGS layers for thin-film solar cells. Photo: HZB

The CIGS thin film photovoltaics <span>can be integrated pleasingly into building architectures. Photo: </span>Manz AG

The CIGS thin film photovoltaics can be integrated pleasingly into building architectures. Photo: Manz AG

Speeding up CIGS solar cell manufacture

A project consortium from research and industry involving the Competence Centre for Photovoltaics Berlin (PVcomB) of Helmholtz-Zentrum Berlin has been granted a major third-party-funded project by the Federal Ministry of Economics. The project “speedCIGS” is to be funded with 4.7 million euros over four years, of which 1.7 million goes to HZB. The project partners will use this money to accelerate the manufacturing process for CIGS thin-film solar cells and thus make the technology more attractive to industry.

The speedCIGS project is being carried in cooperation with systems builder Manz AG, the Center for Solar Energy and Hydrogen Research Baden-Württemberg (ZSW), the Universities of Jena and Paderborn, the Max Planck Institute Dresden and the Wilhelm Büchner Hochschule (as project coordinator).

The acquired funding will go towards optimising a co-evaporation process at PVcomB used for producing CIGS layers for thin-film solar cells. CIGS solar cells get their name from their constituent elements Copper, Indium, Gallium and Selenium. The elements are deposited together in a vacuum onto a heated substrate to form a thin layer of the desired compound. The manufacturing process used at PVcomB is already being used industrially, but is still relatively slow. The process is now to be sped up within the speedCIGS project, so that more modules can be produced per unit time for the same investment costs. This would make the production of CIGS solar modules much cheaper, giving the technology a competitive advantage in the currently tense market situation.

Also to be developed at PVcomB is a transparent p-conducting material that will go a long way towards developing high-efficiency tandem solar cells based on CIGS.

Polycrystalline CIGS solar cells already stand out for their high efficiency and high energy yields. Another advantage is the aesthetic appearance of the modules, which integrate pleasingly into building architectures.

(sz/il)

  • Copy link

You might also be interested in

  • Tage des offenen Reallabors - Das HZB lädt ein!
    Nachricht
    11.06.2025
    Tage des offenen Reallabors - Das HZB lädt ein!
    Photovoltaik trifft Architektur.
  • AI in Chemistry: Study Highlights Strengths and Weaknesses
    News
    04.06.2025
    AI in Chemistry: Study Highlights Strengths and Weaknesses
    How well does artificial intelligence perform compared to human experts? A research team at HIPOLE Jena set out to answer this question in the field of chemistry. Using a newly developed evaluation method called “ChemBench,” the researchers compared the performance of modern language models such as GPT-4 with that of experienced chemists. 

  • TH Wildau and Helmholtz Zentrum Berlin signed comprehensive cooperation
    News
    30.05.2025
    TH Wildau and Helmholtz Zentrum Berlin signed comprehensive cooperation
    On 21 May 2025, the Technical University of Applied Sciences Wildau (TH Wildau) and the Helmholtz-Zentrum Berlin für Materialien und Energie (HZB), signed a comprehensive cooperation agreement. The aim is to further promote networking and cooperation, particularly in basic research, to increase the scientific excellence of both partners and to develop competence networks in research, teaching and the training of young scientists.