Researchers have achieved precise control over the strong interaction between light and atomic vibrations in perovskite materials, opening new avenues for manipulating material properties.
A new analytical framework accurately models how planets deflect small bodies, determining their orbital lifetimes and ejection velocities.
As cyber-physical systems become more complex, clearly defining the underlying assumptions and guarantees is crucial for ensuring safe and dependable operation.
Researchers have extended the concept of Berry curvature to encompass mixed quantum states, unlocking new possibilities for precision measurement and parameter estimation.
Researchers have developed a novel method for definitively identifying a specific form of three-qubit entanglement-the $W$ state-by leveraging the interplay of quantum uncertainty relations.
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.