>
Christmas Truce of 1914, World War I - For Sharing, For Peace
The Roots of Collectivist Thinking
What Would Happen if a Major Bank Collapsed Tomorrow?
Travel gadget promises to dry and iron your clothes – totally hands-free
Perfect Aircrete, Kitchen Ingredients.
Futuristic pixel-raising display lets you feel what's onscreen
Cutting-Edge Facility Generates Pure Water and Hydrogen Fuel from Seawater for Mere Pennies
This tiny dev board is packed with features for ambitious makers
Scientists Discover Gel to Regrow Tooth Enamel
Vitamin C and Dandelion Root Killing Cancer Cells -- as Former CDC Director Calls for COVID-19...
Galactic Brain: US firm plans space-based data centers, power grid to challenge China
A microbial cleanup for glyphosate just earned a patent. Here's why that matters
Japan Breaks Internet Speed Record with 5 Million Times Faster Data Transfer

Making parts like these smaller will help enable quantum computers with millions of qubits.
Above – Lead author of the study, PhD candidate Alice Mahoney, in the quantum science laboratories at the Sydney Nanoscience Hub.
The Sydney team's component, coined a microwave circulator, acts like a traffic roundabout, ensuring that electrical signals only propagate in one direction, clockwise or anti-clockwise, as required. Similar devices are found in mobile phone base-stations and radar systems, and will be required in large quantities in the construction of quantum computers. A major limitation, until now, is that typical circulators are bulky objects the size of your hand.
They used the properties of topological insulators to slow the speed of light in the material. This miniaturization paves the way for many circulators to be integrated on a chip and manufactured in the large quantities that will be needed to build quantum computers.