Teraferroics for ultra-high capacity, speed and energy-efficiency of information technology (TERAFIT)
The research in TERAFIT project will focus on the development of applications that are essential for the Internet of Things and the Big Data economy. The aim is to achieve breakthroughs towards a new generation of information technologies – the three research objectives of the project focus on interconnected breakthroughs that will lead to substantial savings on energy, space and time scales.
Altermagnetism has been experimentally confirmed
In an article published in Nature an international team of scientists breaks down the traditional idea of dividing magnetism into two branches – the ferromagnetic one, known for several millennia, and the antiferromagnetic, discovered about a century ago. Researchers have now succeeded in directly experimentally demonstrating a third altermagnetic branch theoretically predicted by researchers in Prague and Mainz several years ago.
Tomáš Jungwirth brings his second ERC Advanced grant to FZU
Approximately only one percent of scientists in Europe succeed in obtaining a grant from the European Research Council, but Professor Tomáš Jungwirth from the Institute of Physics of the Czech Academy of Sciences has succeeded in a large competition for the second time. With his project Altermagnetism and spintronics without magnetization and relativity he has succeeded once again in the ERC Advanced grant category after twelve years and received the highest possible support of €2.5 million. The success rate for this type of grants was only 13.2% in 2022.
Siemens Award: Recognition of the Entire Discipline of Spintronics
Libor Šmejkal from the Institute of Physics of the Czech Academy of Sciences has won the second place in the “Best Dissertation Thesis” category in this year’s Werner von Siemens Award. Libor won the award for the thesis entitled “Topology band theory of relativistic spintronics in antiferromagnets” supervised by professor Tomáš Jungwirth.
Antiferromagnetic artificial neurons responding to femtosecond-laser pulses
Researchers from the Institute of Physics of the Czech Academy of Sciences and Charles University have just published in Nature Electronics their new experiment in which they succeeded to write information into an antiferromagnet by femtosecond-laser pulses.
The Neuron Award for Significant Scientific Discovery in Physics goes to Mr. Tomáš Jungwirth
New discovery how the information is recorded in anti-ferromagnetic materials with the use of particle spin.
The Grants by the GA CR for Excellent Research won by the FZU
Scientists from the Institute of Physics have achieved tremendous success in all listed categories, including the new EXPRO program to support excellence in basic research
Science Café in Brussels with Tomáš Jungwirth
The eleventh Science Café in Brussels hosted Tomáš Jungwirth, a recognized scientist in the field of Spintronics from the Institute of Physics of the Czech Academy of Sciences.
Science café with Tomáš Jungwirth
The eleventh Science Café, an unconventional open discussion with scientists. This time in Brussel.
Groundbreaking research by Czech physicists
Scientists uncovered a method for data entry and storage in computing that is 1000 times faster than in common memory media.
Discoveries in the area of antiferromagnetic materials change the way of data storing
The new discovery not only allows a thousand times faster data storing, but it may also find applications in AI and artificial neural networks.
New Concept for Digital Data Storage
An antiferromagnetic advantage is a speed by which information can be written in their memories. Plus the information stored by antiferromagnetic materials cannot be accidentally wiped even by large magnetic fields.