News and agenda

Researchers from TU Delft and Brown University have engineered string-like resonators capable of vibrating longer at ambient temperature than any previously known solid-state object — approaching what is currently only achievable near absolute zero temperatures. Their study, published in Nature Communications, pushes the edge of nanotechnology and machine learning to make some of the world’s most sensitive mechanical sensors.

Ron van Ostayen vertelt over verbeterde productie van chips door middel van zwevende wafers

Every time the robotic arm picks up a wafer for placement in the chip machine, very small particles are generated which are harmful for the chip production process. The Faculty of Mechanical Engineering from TU Delft is working on new generation wafer handlers that can handle wafers without particle generation.

When working at the nanoscale, even a speck of dust can cause disruptions. That is why you find several clean rooms across the TU Delft Campus. In the clean room of Mechanical Engineering, researchers have the unique possibility to build mechanical structures at nanoscale, from top-down by sculpting materials and bottom-up by additive nanomanufacturing. The resulting devices find applications in a variety of fields, from biology to material science.

Researcher Gerard Verbiest works on new chip technology using sound. Together with researchers at ASML, he investigates, among other things, how to apply sound to look inside a chip.

A material that doesn't just rival the strength of diamonds and graphene, but boasts a yield strength 10 times greater than Kevlar, renowned for its use in bulletproof vests.

More and better optics with less. That is the ambition of the AWAVE consortium, led by TU Delft. The researchers will develop a flat optical component that might replace all curved optical components, such as lenses, in the future. This flat component should also be easy to recycle and contain fewer harmful substances.

Researchers at TU Delft designed novel 3D-engineered scaffolds inspired by the geometry of the brain microvasculature. The micro-structures were co-cultured with both glioblastoma, an aggressive brain cancer, and endothelial cells, the building blocks of blood vessels. This model enabled researchers to study the effect of proton therapy on glioblastoma and uncovered a possible protective role of endothelial cells on cancer cells.

Last year, scientists at TU Delft achieved a remarkable feat by using graphene to capture the sound of an individual bacterium. In order to improve these kind of 2D ultra-sensitive sensors, the nanomechanics of this material have to be studied in more detail. Farbod Alijani, associate professor at the faculty of Mechanical, Maritime and Material Engineering, received an ERC Consolidator Grant for this project.

A material that doesn't just rival the strength of diamonds and graphene, but boasts a yield strength 10 times greater than Kevlar, renowned for its use in bulletproof vests.