The recent discovery of a time crystal on a microscale semiconductor chip has opened up a new realm of possibilities in the field of quantum physics. Researchers have observed the chip oscillating at a rate of several billion times per second, revealing exceptionally high non-linear dynamics in the GHz range. This groundbreaking experiment, published in
Physics
In a recent study published in Advanced Science, a research group successfully developed a giant magneto-superelasticity of 5% in a Ni34Co8Cu8Mn36Ga14 single crystal. This breakthrough was accomplished by introducing arrays of ordered dislocations that led to the formation of preferentially oriented martensitic variants during the magnetically induced reverse martensitic transformation. Elasticity, the ability of materials
Quantum computing has shown immense potential in revolutionizing the way complex problems are solved, offering a glimpse into a future where tasks that would take conventional supercomputers decades could be completed with remarkable speed. However, the key to unlocking this potential lies in the development of a scalable hardware architecture with millions of interconnected qubits.
The development of the novel oxide material, Ca3Co3O8, has opened up new possibilities in the field of material science. By manipulating correlated oxides at the atomic level, researchers have achieved a unique combination of properties that challenges traditional understanding. This groundbreaking achievement, published in Nature Materials, has captured the attention of the scientific community and
The field of materials physics is constantly evolving, with researchers striving to understand how electrons interact and move within new materials. Questions about the flow of electrical current, superconductivity, and the preservation of electron spin are all at the forefront of research in this area. A recent study by a team of scientists at Caltech