Researchers unveil a novel hybrid architecture that combines the power of quantum computing with the flexibility of neural networks to overcome critical training challenges in physics-informed modeling.
A detailed analysis of a proposed gravitational entanglement mechanism reveals it does not generate genuine, non-classical correlations.
This review explores the theoretical framework and experimental possibilities of the ‘time qubit,’ a novel approach to encoding and measuring temporal orientation using quantum interference.
Researchers demonstrate a new approach to estimating multiple quantum parameters, achieving optimal precision for key parameters without sacrificing information about others.
A new model suggests that violations of Bell inequalities aren’t necessarily evidence of non-locality, but may arise from the fundamental physics of measurement itself.
New research establishes limits on the speed of quantum evolution based on a fundamental quantum property called ‘imaginarity.’
Researchers directly observe how energy bands warp in complex momentum space within a non-Hermitian system, opening new avenues for manipulating light and matter.
Researchers demonstrate improved fidelity in quantum teleportation protocols using subtle measurements and error-correcting techniques.
This review explores how different types of Gaussian quantum channels affect the transfer of quantum steering, a key resource for quantum communication.
A new mathematical framework links mixed and pure quantum states through a unifying generating function.