With the facilities of the SolarLab, atomic layers can be applied to solar cells, in a quick, controlled manner, making solar cells even more efficient.
Solar cells comprise various extremely thin layers of materials, each with its own job to do. Together they ensure that sunlight is converted into electricity as efficiently as possible, and that energy loss is minimized. To make solar cells even more efficient, scientists search ceaselessly for new materials and innovative ways of making these nanolayers. The SolarLab facilitates this research by providing state-of-the-art instruments.
Anti-reflective coatings and protective layers
With the facilities of the SolarLab, thin layers can be applied to a substrate at high speed and with extreme precision. Using this technology, scientists at TU/e developed thin coatings that prevent the reflection of sunlight. They also generated a highly effective passivating layer, a protective layer that prevents the leakage of charge. The SolarLab's facilities have enabled scientists to develop nanolayers made of perovskite: a very promising new material in the fabrication of solar cells.
The laboratory specializes in atomic layer deposition: the creation of various atomic layers on a substrate. This can be achieved in a number of ways, such as plasma-assisted atomic layer deposition, one of the methods in which the laboratory excels. As plasma is a reactive gas, it reacts with the atoms on the surface of the material to which it is exposed. When the reaction is complete, the surface is covered in a new layer.
With the SolarLab's deposition methods, the atomic layers can be applied quickly, accurately and precisely. What's more, as this process can take place at a low temperature, these methods are suitable for application to polymers and other organic materials. The scientists connected to the SolarLab have a thorough understanding of the processes that underpin the deposition methods. This knowledge forms a unique springboard for innovative solutions in the field of nanolayer deposition.
Scientists at TU/e cooperate in the SolarLab with a range of external partners, such as ECN, IMEC and Solliance. External companies, such as FEI, Levitech, Meyer-Burger, Océ, Philips and Toyota, also use the facilities. Interested parties can contact Erwin Kessels.
Visit our other state-of-the-art labs and facilities
Center for Multiscale Electron Microscopy
CMEM offers state-of-the-art facilities for the study of innovative molecules, materials, and processes.
Center for Wireless Technology
The CWTe facilitates research on wireless systems and antennas, raising the Internet of Things to a higher level.
The Darcy Lab offers unique MRI facilities specially equipped for researching the properties of technological porous materials.
Equipment & Prototype Center
The Equipment & Prototype Center (EPC) makes custom experimental setups and prototypes for various fields of research.
Future Fuels Lab
In the Future Fuels Lab scientists are researching green fuels and cleaner combustion methods for engines.
High Capacity Optical Transmission Lab
The High Capacity Optical Transmission Lab facilitates research on innovative optical fibers and signal processing techniques to enable…
Institute for Complex Molecular Systems Laboratory
ICMS/Lab facilitates the development and characterization of innovative materials from a molecular perspective.
Laboratory for Cell & Tissue Engineering
The Laboratory for Cell & Tissue Engineering facilitates culturing of autologous tissues across the full spectrum of the research field.
The Microfab/Lab facilitates the development of new micromanufacturing technologies for use in life sciences applications.
The Multiscale Lab facilitates research on the micro-mechanical deformation and failure behavior of a broad class of (innovative) materials…
NanoAccess makes it possible to produce, process and analyze innovative materials with nanometer accuracy, without releasing the necessary…
The NanoLabTUe offers a unique combination of equipment for developing optical chips and other applications based on compound semiconductor…