The realm of quantum physics is often perceived as highly complex and chaotic, with interactions between small particles leading to intricate behaviors. However, a recent study conducted by Professor Monika Aidelsburger and Professor Immanuel Bloch, from the LMU Faculty of Physics, suggests that even quantum many-body systems can potentially be described through simple diffusion equations
Physics
Sound waves are a fundamental aspect of our daily lives, allowing us to communicate, enjoy music, and interact with our environment. However, in certain technical applications, the ability to control the direction in which sound waves propagate is crucial. Researchers at ETH Zurich have made significant progress in this area by developing a method for
Quantum computing has long been seen as the next frontier in computing technology, promising unparalleled processing power and capabilities. However, one of the major hurdles in realizing this potential is the challenge of quantum error correction. In a recent publication in Science Advances, Hayato Goto from the RIKEN Center for Quantum Computing in Japan introduced
In a recent study conducted by RIKEN physicists, it was discovered that magnetic fields can play a crucial role in engineering flat bands in twisted graphene layers. Graphene, a single layer of carbon atoms in a hexagonal lattice, has already been well-known for its unique properties. However, when multiple layers of graphene are combined and
Quantum computing has emerged as a powerful tool for solving complex problems and pushing the boundaries of scientific understanding. As researchers delve deeper into the potential of quantum systems, the importance of quantum error correction has come into focus. It is crucial to enhance the accuracy and reliability of quantum computers to fully leverage their
A recent study conducted by researchers from Skoltech, Universitat Politècnica de València, Institute of Spectroscopy of RAS, University of Warsaw, and University of Iceland has shed light on the spontaneous formation and synchronization of multiple quantum vortices in optically excited semiconductor microcavities. This groundbreaking discovery opens up new possibilities for studying and simulating condensed matter
The world of particle acceleration is undergoing a revolution with the development of laser-plasma accelerators. These compact facilities are able to accelerate electron bunches efficiently, enabling the creation of X-ray lasers that can fit in the basement of a university institute. Unlike conventional facilities that can span kilometers in length, laser-plasma accelerators take up significantly
Einstein’s theory of relativity is built on two fundamental postulates. The first postulate states that the laws of physics appear the same to all observers who are moving in a straight line with uniform velocity, without any acceleration. This idea was inspired by the work of Dutch physicist Hendrik Lorentz in the late 1800s, leading
Recent research conducted by the National University of Singapore (NUS) has paved the way for a deeper understanding of advanced quantum materials through the simulation of higher-order topological (HOT) lattices using digital quantum computers. These complex lattice structures offer insights into robust quantum states that have tremendous potential in various technological applications. The study of
A recent study titled “Near-complete chiral selection in rotational quantum states” published in Nature Communications by the Controlled Molecules Group at the Fritz Haber Institute has made substantial progress in the field of chiral molecules. Led by Dr. Sandra Eibenberger-Arias, the team achieved near-complete separation in quantum states for these crucial components of life. This
The field of condensed-matter sciences has reached a new milestone with the development of a groundbreaking sample configuration by a team of international scientists. In a recent publication in the Journal of Applied Physics, researchers from Lawrence Livermore National Laboratory (LLNL), Argonne National Laboratory, and Deutsches Elektronen-Synchrotron have introduced a new method that significantly enhances
Simulating particles, especially irregularly shaped ones, presents a complex and time-consuming challenge for researchers. While spherical particles are relatively straightforward to simulate, the majority of particles in the real world do not conform to perfect spherical shapes. Understanding and predicting the behavior of these irregularly shaped particles is crucial for various applications, such as addressing
Quantum information technology is an ever-evolving field that requires constant innovation in order to control electrons and other microscopic particles. Recent research conducted by Cornell University researchers has shown that acoustic sound waves may hold the key to manipulating electrons as they orbit lattice defects in diamonds. This groundbreaking technique has the potential to improve
The study conducted by the University of Trento in collaboration with the University of Chicago presents a groundbreaking approach to understanding the interactions between electrons and light. This research not only has the potential to advance quantum technologies but also has implications for the discovery of new states of matter. Understanding how quantum particles interact
The recent experiments conducted at the Brookhaven National Lab in the US have led to a groundbreaking discovery in the field of particle physics. An international team of physicists has successfully detected the heaviest “anti-nuclei” ever observed. These anti-nuclei are composed of exotic antimatter particles, shedding light on the nature of antimatter and its properties.