News and agenda

Farbod Alijani, Associate Professor at the department of Precision and Microsystems Engineering, has been awarded a Proof of Concept grant by the European Research Council. He is one of 55 ERC grant holders that are set to receive top-up funding in this round to explore the commercial or innovation potential of the results of their EU-funded research.

Miguel Bessa and Richard Norte have been awarded an Interstellar Initiatives Grant from the Limitless Space Institute. The award is for their research ‘Origami Photonic Crystal Sails with Machine Learning’. Their research focus is about the development and demonstration of nanoscale origami photonic crystal membranes using data-driven machine learning.

A chip with a built-in sensor that is so sensitive that it registers a single coronavirus particle. At TU Delft, several researchers in various faculties, including Frans Widdershoven (EW), Peter Steeneken, professor Dynamics of Micro and Nanosystems and Murali Ghatkesar (PME/3mE) are working on this research.

At the PME department, a micro-sized pipette probe has been developed for handling multiple liquids. It is the first time that such a small probe can dose fluid volume, and simultaneously control the concentration of particles inside the fluid.

Angelo Accardo, expert in the area of Soft Micro- and Nano-system Technology for Life Sciences and Biology, received the TU Delft Health Initiative Pilot award. His pilot project will be about his research on the creation of standardized, reproducible and physiologically relevant 3D engineered cell microenvironments (3D Onco-Scaffolds) to be used as a benchmark tool for proton Radiobiology.

Murali Ghatkesar, assistant professor in the Department of Precision and Microsystems Engineering, has developed a new method through 3D printing that makes it easier, quicker and more efficient to perform single-cell biopsies. It is the first time that 3D printing is being used for the production of micro- and nanofluidic equipment. The results of his research were published in the scientific journal Lab on a Chip this month.

A key requirement for a future quantum internet is that it will be widely accessible and affordable. This requires the ability to prepare mechanical systems in their lowest possible energy state (the quantum ground state) without expensive cryogenics.

Researchers at TU Delft have designed a dilation method that can be applied to any curved surface. The range of applications include medical braces for children, expandable furniture, or aortic stents.