Quantum materials are substances in which quantum mechanical interactions play a critical role in determining their electronic, magnetic, and optical properties. These materials often exhibit unconventional behavior that cannot be explained by classical physics alone, such as superconductivity, topological insulator properties, and quantum Hall effects. Research in quantum materials aims to harness these unique properties for applications in quantum computing, sensing, and energy technologies. The study of quantum materials is a rapidly evolving field, intersecting with condensed matter physics, materials science, and applied physics, promising revolutionary advances in technology and a deeper understanding of matter.
A novel quantum sensor with exceptional resolution transforms atomic-level material analysis, paving the way for advancements in quantum technologies and sciences. In a scientific breakthrough,…
NUS researchers have created a new butterfly-shaped magnetic nanographene that could improve quantum computing by enabling better control of electron spins and extending the coherence…
A powerful combination of high-throughput computation and precise fabrication techniques has been developed to accelerate the discovery of quantum defects. For the first time, researchers…
Researchers have successfully observed an antiferromagnetic phase transition in a quantum simulator, a significant step toward understanding the physics of high-temperature superconductivity. This breakthrough demonstrates…
New findings suggest the need to re-evaluate current theories on electron interactions, leading to a better understanding of magnetic properties, high-temperature superconductivity, and the behavior…
Researchers from an international consortium have published a groundbreaking study that advances the field of solid-state physics. An international group of researchers has found that…
The technique opens possibilities for exploring exotic states of matter and building new quantum materials. Proximity is key for many quantum phenomena, as interactions between…
Professor Fabio Boschini and his team at QMI-UBC have highlighted the TR-ARPES photoemission technique. Research into quantum materials is leading to revolutionary breakthroughs and is…
The potential of quantum technology is huge but is today largely limited to the extremely cold environments of laboratories. Now, researchers at Stockholm University, at…
For the first time, scientists electrically manipulate a ‘chiral interface state’ in a 2D material, with promise for energy-efficient microelectronics and quantum computing. Scientists have…
The results, continuing the legacy of late Columbia professor Aron Pinczuk, are a step toward a better understanding of gravity. A team of scientists from…
New states of order can arise in quantum magnetic materials under magnetic fields. An international team has now gained new insights into these special states…
Innovative use of timed laser pulses by JILA and CU Boulder researchers provides new insights into quantum material behavior, aiding in the exploration of superconductivity…
This breakthrough will enable scientists to convert everyday materials into conductors for use in quantum computers. A recent study by scientists from the University of…
Thermoelectric effect reveals full picture of fluctuations in superconductivity. Weak fluctuations in superconductivity,[1] a precursor phenomenon to superconductivity, have been successfully detected by a research…
Researchers at the National University of Singapore (NUS) have developed an innovative method for creating carbon-based quantum materials atom by atom. This method combines the…
A groundbreaking europium-based compound, Cs2NaEuF6, could revolutionize quantum memory storage, indicating a promising direction for quantum computing material research. In the quest to develop quantum…
A research team from the Helmholtz-Zentrum Dresden-Rossendorf (HZDR) and the University of Salerno in Italy has discovered that thin films of elemental bismuth exhibit the…