Archive

On 4 October during the Innovation Expo in Rotterdam, the Finnish company Bluefors announced that it will join the Delft quantum technology community and open an R&D office on the TU Delft campus.

Superconducting quantum microwave circuits can function as qubits, the building blocks of a future quantum computer. A critical component of these circuits, the Josephson junction, is typically made using aluminium oxide. Researchers in the Quantum Nanoscience department at the Delft University of Technology have now successfully incorporated a graphene Josephson junction into a superconducting microwave circuit. Their work provides new insight into the interaction of superconductivity and graphene and its possibilities as a material for quantum technologies.

Scientists have demonstrated that the positrons produced by the TU Delft research reactor are ideally suited for studying quantum dots, the building blocks of next generation solar cells.

NWO has approved an application for the Center for Ultrasound Brain Imaging at Erasmus MC (CUBE), in which TU Delft is also involved. The science financier has earmarked nearly 2.5 million euros for the realization of CUBE.

Hyun Youk (Bionanoscience) has been selected as one of the 12 early career researchers who will join the CIFAR Azrieli Global Scholars program. Youk will receive a prestigious two‐year term with 100,000 dollar in research support.

Molecular electronics is a burgeoning field of research that aims to integrate single molecules as active elements in electronic devices. Obtaining a complete picture of the charge transport properties in molecular junctions is the first step towards realizing functionality at the nanoscale. Researchers from Delft University of Technology have now studied the charge transport in a novel system, the ‘graphene mechanical break junction’, which for the first time allowed direct experimental observation of quantum interference effects in bilayer graphene as a function of nanometer-displacements. This new platform could potentially be used for electronic fingerprinting of biomolecules, from DNA to proteins, which in turn can have important implications for the diagnosis and treatment of diseases. The research was partly funded by the Graphene Flagship.

The field of optical microscopy research has developed rapidly in recent years. Thanks to the invention of a technique called super-resolution fluorescence microscopy, it has recently become possible to view even the smaller parts of a living cell. Now, by making a smart refinement to that technique, researchers at TU Delft have pushed its boundaries even further. Where previously objects measuring up to 10-20 nanometres could be observed, their method makes it possible to focus on structures of as tiny as 3 nanometres across.

Marileen Dogterom, Professor of Bionanoscience at TU Delft, has been awarded the NWO Spinoza Prize; the highest award in Dutch science. Dogterom carries out research into the dynamics in living cells and leads a consortium which is aiming to build an entirely artificial cell.

Researcher Maysam Shabanimotlagh has brought important improvements in ultrasound measurement a step closer. On Wednesday 12 September, he will be awarded his PhD at TU Delft for his work on this technology.

For those who always wanted to have a go at quantum computing, QuTech has launched Quantum Inspire.