Science

Researchers have developed a novel method for characterizing the statistical behavior of quantum jumps between distinct, macroscopic states of light within a cavity QED system.

New research reveals how the transition from quantum to classical chaos emerges in a photon gas, driven by the act of measurement itself.

Researchers have developed a novel method using resonant inelastic X-ray scattering to identify and quantify entanglement between spin and orbital degrees of freedom in quantum materials.

A new analysis using quantum field theory challenges conventional understandings of time dilation and the famous twin paradox.

New research reveals a fundamental link between the mathematical structure of quantum systems and the emergence of the very fabric of spacetime.

A new analysis reveals how extending quantum self-testing to the realm of complex numbers provides a powerful tool for characterizing and understanding the fundamental limits of quantum correlations.

A new review explores how sensitive measurements with torsion balances and quantum states could reveal subtle violations of the Weak Equivalence Principle, bridging the gap between general relativity and quantum mechanics.

New research reveals that ferromagnetic materials exhibit a surprising ‘memory effect’ at terahertz frequencies, challenging the conventional understanding of how spins relax.

A new perspective on non-Hermitian quantum systems reveals how geometric properties dictate the behavior of wavepackets and open doors to novel control mechanisms.

A new analysis clarifies the conditions under which quantum mechanics provides the most accurate predictions, revealing a precise boundary for potential improvements from alternative theories.