Toward quantum for the real world: Photonic team in running for center-level funding
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Updates every hour. Last Updated: 8-May-2025 16:09 ET (8-May-2025 20:09 GMT/UTC)
For the first time, however, the structure of this protective mantle and its interactions with the virus' RNA have been described on an atomic scale by scientists from the CNRS and l’Université Grenoble Alpes – a result that has been awaited by the scientific community for almost forty years. The research team has also revealed the precise positioning of the RNA molecules in their protective coat, and the interactions between the two helix strands.
A strong and impact-resistant plastic that is comparable to steel could be on its way to more efficient processing thanks to new strategies introduced and tested by researchers based in England.
UTSA’s Office of Research today announced the launch of the Center for Space Technology and Operations Research (CSTOR), a new research center dedicated to advancing engineering, technology and operations that will support space missions between the Earth and the Moon, an area referred to as cislunar space, as well as the lunar surface. The center will address the growing demand for research and workforce development by civil, commercial and national security space agencies and companies. David Silva, UTSA distinguished professor of physics and astronomy, will serve as the center’s inaugural director.
CSTOR will provide enhanced support to the more than 35 UTSA researchers and over 200 students working on space technology related research and career development in areas such as uncrewed spacecraft, lunar habitation, hypersonics and propulsion. It will further augment the university’s effort to attract even more of the nation’s brightest minds in space technology through UTSA's clustered and connected faculty hiring plan, supported by the UT System Board of Regents’ Research Excellence Program.
“UTSA has intentionally expanded its capacity, facilities and expertise in space technology to meet the rapidly growing demand for innovation and enable stronger comprehensive partnerships with key organizations like Southwest Research Institute and Department of Energy National Labs,” said UTSA President Taylor Eighmy. “The launch of this new center positions UTSA as a destination for innovation, knowledge creation and talent development for the space economy.”
How does the Earth generate its magnetic field? While the basic mechanisms seem to be understood, many details remain unresolved. A team of researchers from the Center for Advanced Systems Understanding (CASUS) at the Helmholtz-Zentrum Dresden-Rossendorf (HZDR), Sandia National Laboratories in the USA and the French Alternative Energies and Atomic Energy Commission (CEA) has introduced a simulation method that promises new insights into the Earth’s core. The method simulates not only the behavior of atoms, but also the magnetic properties of materials. The approach is significant for geophysics, but could also support the development of future technologies such as neuromorphic computing — an innovative approach to more efficient AI systems. The team presents its findings in the journal PNAS (DOI: 10.1073/pnas.2408897121).
Researchers at HSE University and MIPT have investigated how the composition of electrons in a superconductor influences the emergence of intertype superconductivity—a unique state in which superconductors display unusual properties. It was previously believed that intertype superconductivity occurs only in materials with minimal impurities. However, the scientists discovered that the region of intertype superconductivity not only persists but can also expand in materials with a high concentration of impurities and defects. In the future, these superconductors could contribute to the development of highly sensitive sensors and detectors. The study has been published in Frontiers of Physics.