Quantum Key Distribution Gets a Timing Boost

A new algorithm achieves picosecond synchronization for secure quantum communication without relying on traditional, vulnerable hardware.

A new algorithm achieves picosecond synchronization for secure quantum communication without relying on traditional, vulnerable hardware.

Researchers have developed new methods for representing the classic Traveling Salesman Problem on quantum computers, potentially unlocking faster solutions with fewer qubits.

Researchers have demonstrated a fully connected quantum key distribution network leveraging integrated photonics and silicon microcombs to dramatically increase connection capacity.

Researchers have unveiled a new superconducting qubit architecture that overcomes key limitations in coherence and crosstalk, paving the way for larger, more reliable quantum processors.

New research explores how quantum annealing can accelerate and improve machine learning models used to identify fraudulent credit card transactions.
A new analysis reveals vulnerabilities in the pseudorandom error-correcting codes used to protect AI-generated content, potentially undermining efforts to track its origin.

Researchers have developed a new end-to-end verifiable e-voting protocol designed to withstand the threat of quantum computers and ensure secure, transparent elections.

As quantum computing power grows, protecting data in the cloud demands new cryptographic approaches, and this review explores how homomorphic encryption can bridge the gap.

A new framework leverages the power of language models to intelligently restore degraded speech, even from extremely low-bandwidth sources.

A new approach to memory management dramatically improves the speed and efficiency of large language model inference.