Superconductors, known for their ability to offer no electrical resistance to the flow of electrons, have long been seen as a promising material for electronic circuits due to their high energy efficiency. Beyond their resistance-free nature, superconductors also exhibit exotic quantum-mechanical effects when paired with other materials, opening up possibilities for advanced functionalities in electronic
Physics
A groundbreaking method has been developed by a team of physicists to detect gravity waves with extraordinarily low frequencies that could provide insight into the early stages of mergers between supermassive black holes, the most massive entities in the cosmos. These gravitational waves oscillate at frequencies as slow as once every thousand years, a hundred
Ultraviolet spectroscopy has long been a crucial tool in the study of electronic and rovibronic transitions in atoms and molecules. The recent breakthrough by the scientists at the Max-Planck Institute of Quantum Optics in implementing high-resolution linear-absorption dual-comb spectroscopy in the ultraviolet spectral range marks a significant advancement in the field. This achievement opens up
The concept of invisibility has always been a fascinating subject, from ancient myths to modern science fiction. The idea of objects disappearing seamlessly in real-world scenarios has been a long-standing goal for researchers across the globe. Recently, a team of researchers from Zhejiang University has made significant strides in this direction by developing an intelligent
In the field of plasma research, scientists are now drawing inspiration from the ancient Japanese art of Kintsugi to revolutionize the way plasma is managed as a potential power source. By acknowledging and utilizing imperfections in magnetic fields that confine a reaction, researchers are able to enhance the stability and performance of plasma for fusion
The recent report by the LHCb collaboration on the observation of the decay of the Bc+ meson marks a significant milestone in particle physics research. The Bc+ meson, composed of two heavy quarks, b and c, decays into a J/ψ charm-anticharm quark bound state and a pair of pions, π+π0. This decay process provides valuable
In a groundbreaking development, researchers at Imperial College London’s Department of Materials have achieved a monumental feat in the realm of maser technology. The traditional image of masers as large, bulky, and stationary equipment that are only found in research laboratories has been shattered with the creation of a new portable maser that can fit
Microwave photonic chips have taken a revolutionary step forward in the field of analog electronic signal processing and computation. Led by Professor Wang Cheng from the Department of Electrical Engineering at City University of Hong Kong, a research team has successfully developed a cutting-edge microwave photonic chip that outperforms traditional electronic processors in terms of
The world of science has long been fascinated by the mysterious forces that govern our universe, particularly the enigmatic relationship between gravity and quantum mechanics. Despite centuries of research and countless experiments, this relationship has remained elusive, with many of the greatest scientific minds, including Isaac Newton and Albert Einstein, unable to fully comprehend its
In today’s data-driven world, the efficiency of solving complex problems is more important than ever before. Traditional computers often face challenges when dealing with a large number of interacting variables, resulting in inefficiencies such as the von Neumann bottleneck. However, a new approach to computing known as collective state computing has emerged to tackle this
Antimatter has long been a subject of fascination and intrigue in the world of physics. At CERN’s Antimatter Factory, the AEgIS experiment is pushing the boundaries of our understanding by producing and studying antihydrogen atoms. The primary goal of this experiment is to test whether antimatter and matter fall to Earth in the same way.
The field of optoelectronics has witnessed a major breakthrough with the development of the Constant Light-Induced Magneto-Transport (CLIMAT) method by physicist Dr. Artem Musiienko. This new method enables the comprehensive characterization of semiconductors in a single measurement, saving valuable time in the assessment of new materials for applications such as solar cells. CLIMAT is based