We promote crosscutting research penetrating multi-scale hierarchical structure of quantum science including cosmology, particle physics, condensed matter physics, quantum information and mathematics.
News
Press Release
Novel Spin-Torque Diode Effect Opening New Possibilities for Ultrafast Information Technology
A research collaboration led by Assistant Professor Shoya Sakamoto and Associate Professor Shinji Miwa from the Institute for Solid State Physics, along with Professor Satoru Nakatsuji and Project Associate Professor Tomoya Higo from the Graduate School of Science at the University of Tokyo, has made remarkable strides in unlocking the potential of topological antiferromagnetic materials for future telecommunication applications. Their paper, titled "Antiferromagnetic spin-torque diode effect in a kagome Weyl semimetal," has been published in Nature Nanotechnology. This study unveils a new spin torque diode effect that remains stable at high frequencies, paving the way for developing ultrafast microwave devices. This advancement is essential for technologies that extend beyond 5G. For more information, please check out the official press release (https://www.su-tokyo.ac.jp/en/press/10596/) and the full publication (https://www.nature.com/articles/s41565-024-01820-0)
Announcement
The Trans-Scale Quantum Science (TSQS) Institute co-organized, with OIST and the Gordon and Betty Moore Foundation, the inspiring international symposium focused on the connection between quantum materials and quantum information research.
An article about the collaborative research results (Isshiki et al., Phys. Rev. Lett. 132, 216702 (2024)) with Associate Professor Hironari Isshiki and Professor Yoshichika Otani from the Institute for Solid State Physics at the University of Tokyo (also Team Leader at RIKEN Center for Emergent Matter Science) was published in the Nikkan Kogyo Shimbun on July 25.
Creation of the basic theory of the material universe
By developing the forefront of quantum theory in material science, such as the understanding of spacetime structure by quantum entanglement, we create the basis of quantum technology.
Creation of quantum materials
We develop materials with exceptional properties that are safeguarded by quantum effects.
Creation of quantum information technology
We carry out research and development aimed at realizing quantum simulations and a wide range of other types of quantum information processing.
Creation of advanced quantum measurement technology
We develop ultra-high resolution quantum response measurement technology, and we create and observe quantum limit states under extreme environments.
