In a groundbreaking collaboration between the Charles University of Prague, the CFM center in San Sebastian, and CIC nanoGUNE’s Nanodevices group, a new complex material with extraordinary properties in the realm of spintronics has been engineered. This groundbreaking discovery, recently published in the prestigious journal Nature Materials, signifies a quantum leap in the potential for
Physics
In the realm of quantum physics, the study of chaotic systems consisting of many interacting particles presents a unique challenge. The complexity and chaotic nature of these systems often pose difficulties in their description. However, a research team led by Professor Monika Aidelsburger and Professor Immanuel Bloch from the LMU Faculty of Physics has recently
Breaking the boundaries of traditional wave propagation, researchers at ETH Zurich have achieved a monumental feat by making sound waves travel only in one direction. This groundbreaking development opens a realm of possibilities for future technical applications with electromagnetic waves and could revolutionize the way we perceive and utilize wave transmission. Water, light, and sound
The field of quantum computing is rapidly evolving, with researchers constantly seeking innovative ways to overcome the challenges of error correction and achieve fault-tolerant quantum computing. In a recent study published in Science Advances, Hayato Goto from the RIKEN Center for Quantum Computing in Japan introduced a groundbreaking quantum error correction approach using “many-hypercube codes.”
The world of physics has been revolutionized by the discovery of exotic properties in graphene, a single layer of carbon atoms arranged in a hexagonal lattice. The ability of electrons to move through graphene without mass has opened up new possibilities for electronic devices. However, when two or more layers of graphene are combined, the
Quantum error correction has emerged as a crucial aspect of scientific research as the field of quantum computing continues to expand. Researchers are focused on increasing the accuracy and reliability of quantum computers to explore their practical applications in various fields, including fundamental science and future technological advancements. A recent study published in Nature Physics
The recent research conducted by a team of researchers from Skoltech, Universitat Politècnica de València, Institute of Spectroscopy of RAS, University of Warsaw, and University of Iceland focuses on the spontaneous formation and synchronization of multiple quantum vortices in optically excited semiconductor microcavities. The researchers demonstrated the antiferromagnetic coupling of polariton quantum vortices in neighboring
Particle accelerators have traditionally been massive facilities, spanning kilometers in length. However, the emergence of laser-plasma accelerators has revolutionized this field by offering compact alternatives that can fit in the basement of a university institute. These accelerators have the potential to accelerate electron bunches efficiently, enabling the generation of X-ray lasers in a fraction of
Albert Einstein’s theory of relativity, one of the cornerstones of modern physics, is built upon two fundamental assumptions or postulates. The first postulate states that the laws of physics appear identical to all observers moving in a straight line with constant velocity and no acceleration. This concept of an “inertial frame of reference” was inspired
Researchers at the National University of Singapore have made significant progress in simulating higher-order topological (HOT) lattices using digital quantum computers. This breakthrough has allowed for a deeper understanding of advanced quantum materials and their robust quantum states that have immense potential in various technological applications. By utilizing many-body quantum interactions, the team led by
In a groundbreaking study recently published in Nature Communications, the Controlled Molecules Group at the Fritz Haber Institute has achieved a remarkable level of chiral selection in rotational quantum states. This advancement, led by Dr. Sandra Eibenberger-Arias, challenges the previously held beliefs regarding the limits of quantum state control of chiral molecules. By achieving near-complete
The recent publication in the Journal of Applied Physics by a team of scientists from Lawrence Livermore National Laboratory (LLNL), Argonne National Laboratory and Deutsches Elektronen-Synchrotron presents a groundbreaking development in the field of equation-of-state measurements. The team has created a new sample configuration that allows for more reliable measurements in a pressure regime that
When it comes to simulating particles, working with spherical shapes is relatively straightforward. However, in reality, most particles do not conform to perfect spherical shapes. Instead, they come in irregular and varying shapes and sizes, making the simulation process much more complex and time-consuming. Understanding the behavior of these particles is crucial, especially in the
Recent research conducted by Cornell University has showcased the potential of utilizing acoustic sound waves to manipulate the movement of electrons within a diamond lattice defect. This breakthrough has significant implications for the improvement of quantum sensors and other quantum devices, as it presents a novel method of controlling microscopic particles like electrons. The study,
The study conducted by the University of Trento and the University of Chicago introduces a groundbreaking approach to the interactions between electrons and light. This research not only has implications for the development of quantum technologies but may also lead to the discovery of new states of matter. Understanding the interaction between quantum particles is