Now, a joint collaboration between the Indian Institute of Technology Indore, the Institute for Condensed Matter Physics and Complex Systems (Politecnico de Torino), the Institute for Quantum Optics and Quantum Information (Innsbruck), the University of Innsbruck, the Institute of Theoretical Physics (Jagiellonian University), the Mark Kac Center for Complex Systems Research (Jagiellonian University), and ICFO and ICREA Prof. Dr. Maciej Lewenstein, has provided an updated review, published in Reports on Progress in Physics. In this work, they have collected some of the most recent and exciting results on the investigation of non-standard Bose-Hubbard models, focusing on their application for atomic quantum simulators.

Recently, a group of researchers led by Prof. QU Zhe from the Hefei Institutes of Physical Science of the Chinese Academy of Sciences, together with Prof. CHANG Tay-Rong from National Cheng Kung Universityhas discovered a novel way to achieve spin-valve effects using kagome quantum magnets.

Scientists have long sought to unravel the mysteries of strange metals — materials that defy conventional rules of electricity and magnetism. Now, a team of physicists at Rice University has made a breakthrough in this area using a tool from quantum information science. Their study, published recently in Nature Communications, reveals that electrons in strange metals become more entangled at a crucial tipping point, shedding new light on the behavior of these enigmatic materials. The discovery could pave the way for advances in superconductors with the potential to transform energy use in the future.

Researchers at the University of the Witwatersrand in Johannesburg, South Africa (Wits University) in collaboration with Huzhou University in China have discovered a way to protect quantum information from environmental disruptions, offering hope for more reliable future technologies.

The same layered material can be made to behave as a superconductor, metal, semiconductor or insulator by using a transistor device developed by RIKEN physicists to tweak its electronic properties. The method could help to uncover new superconductors.

ICFO researchers, in an international collaboration, have used terahertz light to explore exotic phenomena within magic-angle twisted bilayer graphene. This approach reveals previously unseen behaviors and provides direct insights into the quantum geometry of electronic wavefunctions —the fundamental framework underlying these phenomena.

Researchers from Tohoku University and St. Paul's School, London, have developed a new algorithm that allows quantum computers to analyze and protect quantum entanglement -- a fundamental underpinning of quantum computing. These findings contribute to advancing our understanding of quantum entanglement and quantum technologies.

In a new paper in Nature, a team of researchers from JPMorganChase, Quantinuum, Argonne National Laboratory, Oak Ridge National Laboratory and The University of Texas at Austin describe a milestone in the field of quantum computing, with potential applications in cryptography, fairness and privacy.

Recently, the ALPHATRAP group around Sven Sturm in the division of Klaus Blaum at the Max Planck Institut für Kernphysik (MPIK) in Heidelberg measured the g factor of hydrogen-like tin ions on a precision level of 0.5 parts per billion. That is like measuring the distance Cologne-Frankfurt with a precision down to the thickness of a human hair This is a stringent test of QED for the simplest atomic system just like conventional hydrogen but with a much higher electric field experienced by the electron due to the charge of 50 protons inside the tin nucleus.

Researchers at the Department of Energy’s Oak Ridge National Laboratory tested a quantum computing approach to an old challenge: solving classical fluid dynamics problems.