Science

Researchers demonstrate that hollow-core fiber can maintain signal integrity for long-distance quantum key distribution, offering a pathway to more secure and robust networks.

New techniques are demonstrating improved control over unwanted interactions between qubits, paving the way for more stable and scalable quantum computers.

Researchers have uncovered a novel exploitation technique that leverages subtle weaknesses in hypervisor memory isolation to reliably compromise virtual machines.

New research reveals that even advanced document visual question answering systems are susceptible to subtle visual manipulations that can alter their responses.

Researchers have significantly increased the range of secure quantum communication by optimizing techniques for real-world single-photon sources.

A new semantic typing approach brings verifiable safety to smart contracts, even when utilizing the traditionally untyped fallback function.

Researchers have demonstrated a new platform for quantum computing by tightly integrating superconducting qubits with advanced acoustic circuits, harnessing the power of sound to control quantum information.

Researchers have developed a novel framework leveraging the unique properties of qudits to create and stabilize discrete time crystals, offering a new avenue for exploring non-equilibrium quantum systems.

A new cryptosystem leverages the complexities of vector computations to provide robust and efficient encryption.

Researchers have developed a simulation framework to model the complex interactions within quantum networks comprised of different qubit technologies.