Researchers have experimentally demonstrated the existence of ‘non-local magic’ – a subtle form of entanglement – on a superconducting quantum processor, paving the way for more powerful quantum computations.
Researchers have developed a novel method for detecting and characterizing entanglement structures in complex multipartite quantum systems, paving the way for improved quantum control and analysis.
New research suggests that the bizarre behavior of the quantum world may not be fundamentally probabilistic, but rather an emergent property of simple, deterministic interactions.
Researchers have discovered a method to amplify the non-classical properties of entangled light states using carefully timed measurements, paving the way for more sensitive quantum sensors.
A new review details how the Schmidt decomposition provides a powerful method for characterizing and quantifying entanglement in quantum systems.
New research reveals that the robust quantum phase transitions seen in standard quantum systems can be maintained even when transitioning to non-Hermitian frameworks.
Researchers are investigating the potential of skyrmionic spin textures as qubits, leveraging their unique properties for enhanced stability and control in quantum information processing.
A new approach efficiently prepares the ground states of complex quantum systems by leveraging short-time evolution under a carefully tuned Hamiltonian.
A new approach leverages the natural simplicity within complex quantum states to dramatically improve our ability to detect and characterize high-dimensional entanglement.
Researchers have demonstrated a novel approach to generating strong, broadband quantum entanglement across multiple frequency combs, paving the way for programmable quantum light sources.