The roadmap serves as a guide for research and development in quantum interconnects, devices that link and distribute quantum information between systems and across distances to enable quantum computing, communications and sensing.

If we want quantum computers to reach their full potential, we’ll need complex networks of the machines strung together with quantum repeaters.

Researchers affiliated with the Q-NEXT quantum research center show how to create quantum-entangled networks of atomic clocks and accelerometers — and they demonstrate the setup’s superior, high-precision performance.

With atomic precision, scientists built a testbed to manipulate electrons in entirely new ways with potential applications in quantum computing.

The prestigious conference recognized the work by Yuri Alexeev, Cameron A. Ibrahim and Ilya Safro as 2022’s best student paper.

Tiny magnetic whirlpools could transform memory storage in high performance computers.

With one of the largest fiber networks in the world, Q-NEXT partner AWS brings a global perspective to quantum technologies, and AWS’ Antia Lamas-Linares is tackling the engineering challenges in making quantum networks a reality.

In a report published in ACS Nano, researchers demonstrate a near-infrared nanolaser using a polymer microsphere as the microcavity and semiconducting single-walled carbon nanotubes as the gain material.

In a paper appearing in Quantum Science and Technology, researchers present a theoretical analysis showing that a single-electron qubit floating on a solid neon could achieve a coherence time as long as 81seconds.