Researchers have demonstrated a method for creating and controlling complex quantum correlations between three particles within a novel atom-coupled dual microresonator setup.
New research reveals a fundamental connection between how quickly a quantum system can change and the inherent asymmetry of its quantum state.
Researchers demonstrate a pathway to generate spin-squeezed states using magnetic interactions, potentially boosting the precision of quantum sensors.
Researchers demonstrate a powerful new optimization technique for creating complex quantum states, paving the way for more sensitive and precise measurements.
New research reveals that strategically employing incompatible measurements can significantly improve the precision of estimating multiple parameters in quantum systems.
New simulations leverage advanced many-body techniques to unravel the complex collective behavior of neutrinos in extreme astrophysical environments.
A new analytical framework unlocks deeper understanding of multi-photon interactions using squeezed light states.
Researchers propose a new method for creating and verifying non-classical states in levitated nanoparticles, opening doors to more sensitive quantum sensors and advanced information processing.
A new benchmarking method leverages mid-circuit parity measurements to assess the degree of non-classicality in quantum computers, offering a more nuanced metric than traditional quantum volume.
New research demonstrates non-classical behavior in sizable groups of qubits, suggesting the transition from quantum to classical isn’t a fundamental limit, but a consequence of practical constraints.