Quantum sensing

Diagram: Space-based search for ultralight bosons and a prototype quantum sensor. Including a gas-vapor chamber, multilayer magnetic shielding, fiber-optic gyroscope, and radiation shielding box. Credit: Science China Press

Chinese scientists turn Earth into a giant quantum sensor to uncover new physics

Orbital quantum sensing, spin-sensing, SQUIRE, exotic interactions, axion halos
Figure caption: (Top left) Composition of the universe — dark matter makes up about 27%. (Top right) Proposed quantum sensor network in which superconducting qubits are connected in various graph structures. (Bottom) Estimation results showing agreement with the true value and comparison against quantum barriers. Credit: © Tohoku University

Quantum sensor networks upgrade the search for dark matter

Researchers in Japan have shown that linking superconducting qubits in optimal network structures significantly improves detection sensitivity — even in the presence of noise — and opens up applications from quantum radar to GPS.
The relevant image created describes the revolution in the field of quantum computers by maintaining quantum coherence at room temperature, presenting a chromophore within an organometallic framework, and emphasizing the innovation and potential of quantum computing and sensing technologies. The image was created by DALEE artificial intelligence software

Breakthrough in quantum computers: qubits are stable at room temperature

achieved a significant breakthrough in the field of quantum computers, by maintaining quantum coherence at room temperature. Quantum coherence describes the ability of a quantum system to maintain a well-defined state over time,