Physics

As technology continues to evolve at a rapid pace, the need for smarter and more powerful electronics in smaller devices has become increasingly prevalent. With this demand, the challenge of analyzing the materials that make up these devices with precision has become a focal point for researchers. Physicists at Michigan State University have made significant

Dark matter, constituting approximately 80% of the matter in the universe, presents one of the most profound mysteries in the field of science. Despite its invisible nature, its gravitational effects are evident in the cosmos. Scientists have made significant progress in the study of dark matter, with ongoing efforts to detect it using advanced quantum

Recent research has brought about a groundbreaking discovery in the field of materials science. A new theory has been developed that finally deciphers the physical mechanisms of fracture in soft materials. This breakthrough has the potential to revolutionize the way we approach material design, leading to the creation of defect-free, more resistant, and durable materials

In the world of materials research, the use of synchrotron radiation has become a common practice. This type of radiation is emitted when ultrafast electrons are deflected in storage rings, producing longitudinally incoherent light with a broad spectrum of wavelengths. While this light is already a powerful tool for scientists, the potential for further enhancement

Supersymmetry (SUSY) has long been regarded as a fascinating theory in the realm of particle physics, offering tantalizing solutions to some of the most perplexing questions in the field. This theory posits the existence of “superpartner” particles for every known particle, each with slightly different properties. For instance, the top quark of the Standard Model

Quantum computers are considered to be revolutionary tools due to their ability to perform calculations much faster than classical computers. One of the key components required for an effective quantum computer is a reliable quantum bit, or qubit, that can exist in a simultaneous 0 or 1 state for an extended period of time known

In a groundbreaking study recently published in Nature Communications, researchers from Rice University have made a significant discovery regarding flat electronic bands at the Fermi level in quantum materials. Led by Qimiao Si, the team’s findings have the potential to revolutionize the field of quantum computing and electronic devices. Quantum materials operate under the principles

In the realm of physics, the concept of simulating quantum particles using quantum computers has been a long-standing goal for researchers. Recently, scientists at Forschungszentrum Jülich, in collaboration with colleagues from Slovenia, have made significant strides in this area. By utilizing a quantum annealer, they successfully modeled a real-life quantum material, showcasing the practical applicability

Astrophysicists have long speculated about the existence of black holes formed by extreme concentrations of light, known as “kugelblitze.” These unique black holes were thought to be linked to phenomena like dark matter and even considered as potential power sources for futuristic spaceship engines. However, recent research from the University of Waterloo and Universidad Complutense

Scientists have recently delved into the realm of neutron transfer within weakly bound nuclei. These endeavors have shed light on the intricacies of the one-neutron stripping process, particularly in interactions involving lithium-6 and bismuth-209. The research, executed at Legnaro National Laboratory, has been documented in the journal Nuclear Science and Techniques. Contrary to initial assumptions,

Superconductivity, the phenomenon of resistance-free electrical conductance, has intrigued scientists for decades. A recent study published in Physical Review Letters (PRL) dives into the world of electron-phonon coupling and its potential to enhance superconductivity through the formation of quantum bipolarons. Electron-phonon coupling involves the interaction between electrons and lattice vibrations known as phonons. In the

Photonic alloys, a combination of two or more photonic crystals, are being hailed as the future of waveguide technology. These materials have the potential to control the propagation of electromagnetic waves, paving the way for advanced structures that can transmit data and energy efficiently. However, one major challenge that researchers have faced with photonic alloys

Searching for di-Higgs production presents a daunting challenge for physicists. While the discovery of a single Higgs boson was a monumental task in itself, the prospect of finding two at the same place and time is exponentially more complex. This rare process, known as di-Higgs production, offers valuable insights into the self-interaction of the Higgs

In a groundbreaking experiment, scientists at the University of Nottingham’s School of Physics have developed a new method to trap dark matter using a specially designed 3D printed vacuum system. This innovative approach aims to detect domain walls and unveil some of the mysteries of the universe that have puzzled researchers for years. Only a

In a groundbreaking experiment led by Philip Walther at the University of Vienna, a team of researchers delved into the effects of Earth’s rotation on quantum entangled photons. Reported in Science Advances, this research represents a significant leap in rotation sensitivity within entanglement-based sensors, paving the way for advancements at the crossroads of quantum mechanics