The NanoLab@TU/e offers a unique combination of equipment for developing optical chips and other applications based on compound semiconductor technology.
Nothing travels faster than light; which is why fiber optic cables are increasingly being used to carry our internet traffic. But as the electronic processing that takes place in our computers relies on electrons, it is continually necessary to convert electrical signals into light signals, and vice versa. With optical chips, this conversion becomes redundant, leading the way for a faster, more energy-efficient internet. The NanoLab@TU/e offers all the equipment necessary to develop these chips and related applications.
Optical chips must be able to generate and manipulate light in all kinds of ways. This necessitates chips constructed from the right combination of semiconductor materials, and placed with the utmost precision in the correct structure. The research conducted by TU/e and various industrial partners is intended to maintain the lead in this field enjoyed by the Brainport Region. An endeavor in which the NanoLab@TU/e plays a vital role.
In addition, the laboratory offers countless possibilities for fundamental research in various fields, including nanowires, single-photon emitters, and the fabrication of ultrathin layers with state of the art atomic layer deposition equipment.
The cleanroom at the NanoLab@TU/e offers a combination of equipment that is available nowhere else in the academic world. Here, optical chips based on semiconductive indium phosphide can be fabricated, from substrate right through to the end product. An ASML DUV scanner makes, for example, prints on a 3-inch wafer (the InP substrate size) with extreme accuracy. The more precise the channels made in the chips for the light to pass along, the less light is lost.
Additionally, the NanoLab@TU/e has a state-of-the art epitaxy machines. This enables to grow the necessary layers, atomic layer by atomic layer, until the resulting material has the required composition and structure. This process is critical to the chip's performance. As well as its unique combination of equipment, the NanoLab@TU/e provides auxiliary staff. These are people with years of expertise in this specialist field.
The NanoLab@TU/e is an open-access research laboratory, in which both TU/e and other research centers and industrial parties conduct research. This approach ensures that insights and understanding acquired through fundamental research quickly find their way into industry. For more information, interested parties should contact Huub Ambrosius.
Visit our other state-of-the-art labs and facilities
Center for Multiscale Electron Microscopy
The CMEM offers unique facilities for the study of soft materials and uses the knowledge gained to develop synthetic materials.
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...