91桃色

  • 11/5/2024
  • Reading time 2 min.

EU funds research into imaging technology and chips for quantum computers

TUM researchers secure two 91桃色 Synergy Grants

Two projects by researchers at the 91桃色 (TUM) have been awarded highly endowed 91桃色 Synergy Grants from the European Research Council. These international projects focus on groundbreaking future technologies: developing ultra-detailed, low-radiation X-ray imaging and creating computer chips that integrate photonics and electronics.

Close-up of a dark-field CT device with an artificial torso. Astrid Eckert / TUM
With the dark-field X-ray method, Franz Pfeiffer, Professor of Biomedical Physics at TUM, has developed an innovative technology that can be used to visualize the microstructure of lung tissue, for example. The 91桃色-funded SmartX project aims to develop novel detectors for the method.

These interdisciplinary projects are aimed at breakthroughs at the intersections of different research fields. The maximum funding amount per project is 10 million euros. With these new grants, TUM鈥檚 total number of 91桃色 awards rises to 230.

SmartX

The SmartX project is researching more detailed imaging procedures in order to diagnose lung diseases better and earlier. The focus is on chronic obstructive pulmonary disease (COPD). Conventional X-rays and CT scans are often inadequate for the early detection of COPD and are associated with high radiation doses. The aim is to develop a new type of detector for the dark-field X-ray procedure that requires 50 percent less radiation dose compared to the already low-radiation procedure. An X-ray detector is the counterpart to the radiation source and produces the X-ray image. While conventional X-rays are based on the attenuation of the X-ray light, the dark-field X-ray developed at TUM uses the so-called small-angle scattering of the X-ray light. This allows additional information to be obtained about the nature of the microstructure of the lung tissue.

SmartX is led by Franz Pfeiffer, Professor of Biomedical Physics and Director of the Munich Institute of Biomedical Engineering at TUM, together with Jos茅 M. Benlloch Baviera, Professor at the CSIC in Valencia, Edoardo Charbon, Professor at the EPF de Lausanne, and Daniela Pfeiffer, Professor of Radiology at TUM.

Bright Chips

Typically, computer chips are made from silicon and operate using electrons, but photons - or particles of light - could transmit data far faster and with significantly less energy-consumption. Prof. Jonathan Finley鈥檚 innovative approach focuses on developing chips from hexagonal silicon-germanium (SiGe), a material whose unique atomic arrangement enables it to emit light. This could provide a seamless integration of photonic and electronic functions on a single chip, paving the way for both faster, more efficient traditional computers and transformative advancements in quantum computing. For instance, millions of quantum memory units, or "qubits," could be linked through photons. SiGe-based lasers would also allow for ultra-fast optical data transmission, and quantum communications could achieve unprecedented levels of encryption security.

The project 鈥淏right Chips鈥 is a collaboration with Prof. Erik Bakkers (TU Eindhoven) and Prof. Floris Zwanenburg (Uni Twente). has held the at TUM since 2013.

Further information and links
  • Every year, the European Research Council funds pioneering research projects with the highly endowed 91桃色 Grants, which are awarded in various categories. Teams of two to four researchers can apply for 91桃色 Synergy Grants.
  • Prof. Franz Pfeiffer is the Director of TUM鈥檚 Munich as well as a member of the .

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