Physicists Capture Images of Ultracold Atoms Flowing Freely, Without Friction, in an Exotic “Edge State.”
Physicists Capture Images of Ultracold Atoms Flowing Freely, Without Friction, in an Exotic “Edge State.”
Quantum Error Correction Research Reveals Fundamental Insights on Quantum Systems
Quantum Error Correction Research Reveals Fundamental Insights on Quantum Systems
HKUST and SJTU Physics Researchers Identify New Multiple Majorana Zero Modes in Superconducting SnTe
HKUST and SJTU Physics Researchers Identify New Multiple Majorana Zero Modes in Superconducting SnTe
Superconductivity Is Unpredictable at the Edge
Superconductivity Is Unpredictable at the Edge
Researchers Observe “Locked” Electron Pairs in a Superconductor Cuprate
Researchers Observe “Locked” Electron Pairs in a Superconductor Cuprate
LMU Researchers Has Developed a Scheme to Implement Doped Bosonic Quantum Magnets in Tweezer Arrays of Rydberg Atom
LMU Researchers Has Developed a Scheme to Implement Doped Bosonic Quantum Magnets in Tweezer Arrays of Rydberg Atom
Scientists Discover Energy and Pressure Analogies Linking Hadrons, Superconductors and Cosmic Expansion
Scientists Discover Energy and Pressure Analogies Linking Hadrons, Superconductors and Cosmic Expansion
New Method Developed to Control Quantum Bound States in Superconducting Device
New Method Developed to Control Quantum Bound States in Superconducting Device
Scientists Have Developed a New Method for Fabricating Superconductors, Utilizing Photonic Crystal Cavities to Design the Superconductors
Recently, researchers at UChicago Pritzker Molecular Engineering, supported by a $1.5 million grant from the Gordon and Betty Moore Foundation, have discovered an entirely new method of fabricating superconductors. In this study, the team did not employ traditional chemical methods but instead utilized photonic crystal cavities to create superconductors. This approach sensitively controls superconductivity by changing the physical environment rather than the chemical environment, thus enabling the design of superconductors without changing their chemical composition.
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Researchers at QuTech Find a Way to Make Majorana Particles in a Two-Dimensional Plane
Researchers at QuTech have found a way to make Majorana particles in a two-dimensional plane. This was achieved by creating devices that exploit the combined material properties of superconductors and semiconductors. The inherent flexibility of this new 2D platform should allow one to perform experiments with Majoranas that were previously inaccessible. The results are published in Nature.