Shielding Quantum Signals from Noise

A new approach to quantum error correction promises to safeguard fragile quantum information from both thermal and environmental disturbances.

A new approach to quantum error correction promises to safeguard fragile quantum information from both thermal and environmental disturbances.

Researchers demonstrate a secure quantum communication system operating at Terahertz frequencies, paving the way for high-bandwidth, unhackable wireless networks.

A 98-qubit trapped-ion processor pushes the limits of quantum computation with a novel architecture and robust performance.

This review explores how shared quantum entanglement can enable fundamentally secure communication protocols and advanced information transfer techniques.

A new framework dynamically optimizes entanglement distribution in satellite quantum networks, overcoming challenges posed by orbital mechanics and atmospheric turbulence.

Exploiting quantum superposition can significantly improve the performance of quantum illumination in noisy environments.
New research boosts the efficiency of quantum key distribution over satellite, paving the way for more secure global communication.
A novel framework extends quantum circuit simulation using classical rewriting, quadratic forms, and reference frame transformations.
This research introduces a method for optimizing quantum tensor representation, enabling more efficient and accurate simulations on near-term quantum hardware.

A new attack demonstrates that techniques designed to protect quantum circuit designs from reverse engineering are surprisingly vulnerable.