In recent years, the realm of superconductivity has witnessed a remarkable evolution, particularly with the rise of Kagome metals—a category of materials recognized for their intricate star-shaped lattice structure. This relatively new class of materials has captivated scientists around the globe, primarily due to its unique properties that intertwine electronic behavior, magnetism, and unconventional superconductivity.
Physics
Recent advancements in photonics have led to a groundbreaking methodology for measuring chirality in molecules, which promises to have significant implications for the pharmaceutical sector. A collaborative research effort between King’s College London and the Max Born Institute has given birth to a novel light structure known as the “chiral vortex.” Published in the prestigious
Quantum computing stands at the precipice of technological advancement, utilizing the principles of quantum mechanics to tackle complex computational problems beyond the reach of classical systems. In a notable development, a multidisciplinary team led by physicist Peng Wei from the University of California, Riverside, has made significant breakthroughs in superconducting materials. Their research, published in
Measurement is a fundamental pillar of science that dictates how we understand the natural world. The capacity to quantify phenomena, especially in the microscopic realm of quantum mechanics, has experienced a significant evolution thanks to emerging technologies in quantum sensing. These advancements provide scientists the ability to explore aspects of reality that were once deemed
The realm of superconductors has been a focal point of scientific inquiry for decades, primarily due to their remarkable ability to conduct electricity without resistance. However, a distinct class of superconductors—topological superconductors—has recently garnered attention for their unique characteristics that promise to revolutionize quantum computing and energy-efficient technologies. Central to their allure are edge states
In a significant leap for quantum physics, a research team spearheaded by the University of Science and Technology of China (USTC) has achieved a longstanding goal in quantum mechanics—effectively closing both the locality and detection efficiency loopholes in a test of Hardy’s paradox. Published in *Physical Review Letters* as an “Editor’s Suggestion,” this monumental study
The realm of physics has long been divided between the macroscopic laws of gravity as articulated by Newton and Einstein, and the intricate principles of quantum mechanics delineating the behavior of subatomic particles. While classical physics describes gravity effectively, the pursuit of a unified theory that encompasses both gravity and quantum mechanics has proven elusive.
Plasma, often described as the fourth state of matter, has captivated scientists due to its ubiquitous presence in the universe. From the fiery interiors of stars to the intricate mechanisms of magnetic confinement in tokamaks, understanding plasma’s behavior is crucial for both astrophysics and fusion energy research. Within these contexts, magnetic fields play a pivotal
Recent advances in the intersection of quantum mechanics and experimental physics have revealed an intriguing phenomenon known as Fano resonance interference, notably among mixed atomic spins. Led by a dedicated research team from the University of Science and Technology of China, this breakthrough addresses the pressing challenge of magnetic noise interference, which significantly hampers precise
The world of condensed matter physics is always enriching itself with new theories and discoveries that promise to push the boundaries of technology. Two prominent figures in this field, Professor Bruno Uchoa and postdoctoral fellow Hong-yi Xie from the University of Oklahoma, have taken a significant step forward by announcing their groundbreaking research on a
Advancements in materials science often hinge on the manipulation of electronic properties to foster innovations in technology. Among the most promising materials for such endeavors is graphene, a one-atom-thick layer of carbon known for its exceptional electrical, thermal, and mechanical properties. Recent research published in Physical Review Letters has introduced a groundbreaking method for selectively
In the evolving landscape of sensor technology, the intersection of photonics and materials science has sparked groundbreaking innovations. Recent research has been particularly focused on non-Hermitian physics, a branch of physics that provides novel methodologies for light manipulation, ultimately enhancing the sensitivity of sensors. A promising study featured in the journal *Advanced Photonics Nexus* elucidates
Recent advancements in quantum biology shed light on Alzheimer’s disease, prompting a profound reevaluation of long-held beliefs about its underlying causes. A novel quantum effect observed in amyloid fibrils—structures known for their association with Alzheimer’s and various neurodegenerative disorders—could herald a paradigm shift in how researchers approach the disease and its potential treatments. For years,
A consortium of engineers and mathematicians from ETH Zürich, alongside researchers from The Institute of Statistical Mathematics and ATR Institute International in Japan, has made significant strides in understanding the physics governing skateboarding on half-pipes. Their study, which recently appeared in the esteemed journal Physical Review Research, draws upon a unique approach. By likening the
Advancements in laser technology have transformed multiple industries, yet challenges remain, especially in generating lasers that emit green light. For over two decades, researchers have successfully developed red and blue lasers but have struggled to produce stable, miniature green lasers. This has given rise to the term “green gap,” which signifies the void in efficient