A rectangular vector map with hexagons distorted on the left by squeezing and on the right by stretching, showing how charged particles are directed to the top or bottom edge of the map

New Quantum Magnet Unleashes Electronics Potential

Julianna Mullen | Plasma Science and Fusion Center

Researchers discover how to control the anomalous Hall effect and Berry curvature to create flexible quantum magnets for use in computers, robotics, and sensors.

A close-up shot of a superconducting qubit wafer, showing microfabricated circuits

Superconducting Qubit Foundry Accelerates Progress in Quantum Research

Kylie Foy | Haley Wahl | MIT Lincoln Laboratory

A 200-millimeter superconducting qubit wafer fabricated through the Superconducting Qubits at Lincoln Laboratory (SQUILL) Foundry is one example of how the foundry is expanding access to quantum research by fabricating high-quality quantum circuits for U.S. research organizations.

quantum super computer rendering in silver and grey

IBM Quantum Summit 2022 — What’s New

Wednesday, November 9, 2022

IBM Research, New York

stylized quantum computer with glowing blue and white silver atoms in the center

QuEra to Bring Expanded Quantum Capability to NERSC

HPC Wire

QuEra Computing, maker of the world’s first and only publicly accessible neutral-atom quantum computer – Aquila, announced a new partnership with the National Energy Research Scientific Computing Center (NERSC).

Peter Shor speaking at microphone wearing a blue suit with light blue shirt and patterned blue tie while standing in front of grey background

It’s a weird, weird quantum world

Jennifer Chu | MIT News Office

In MIT’s 2023 Killian Lecture, Peter Shor shares a brief history of quantum computing from a personal viewpoint.

On left, a complex metallic lab refrigerator has an inset shows a chip. The chip is enlarged on the right and has 4 squares in the middle of the chip. An arrow represents receiving data.

A New Way for Quantum Computing Systems to Keep Their Cool

Adam Zewe | MIT News Office

A wireless technique enables a super-cold quantum computer to send and receive data without generating too much error-causing heat.

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