>
Tell General Mills To Reject GMO Wheat!
Climate Scientists declare the climate "emergency" is over
Trump's Cabinet is Officially Complete - Meet the Team Ready to Make America Great Again
Former Polish Minister: At Least Half of US Aid Was Laundered by Ukrainians...
Forget Houston. This Space Balloon Will Launch You to the Edge of the Cosmos From a Floating...
SpaceX and NASA show off how Starship will help astronauts land on the moon (images)
How aged cells in one organ can cause a cascade of organ failure
World's most advanced hypergravity facility is now open for business
New Low-Carbon Concrete Outperforms Today's Highway Material While Cutting Costs in Minnesota
Spinning fusion fuel for efficiency and Burn Tritium Ten Times More Efficiently
Rocket plane makes first civil supersonic flight since Concorde
Muscle-powered mechanism desalinates up to 8 liters of seawater per hour
Student-built rocket breaks space altitude record as it hits hypersonic speeds
Researchers discover revolutionary material that could shatter limits of traditional solar panels
There five leading quantum computing approaches being explored worldwide: silicon spin qubits, ion traps, superconducting loops, diamond vacancies and topological qubits. University of New South Wales has new scalable CMOS chip design based on silicon spin qubits. They believe the design will scale to millions of qubits for universal computation and with error correction.
The main problem with all current approaches is that there is no clear pathway to scaling the number of quantum bits up to the millions needed without the computer becoming huge a system requiring bulky supporting equipment and costly infrastructure.
UNSW relies on its silicon spin qubit approach – which already mimics much of the solid-state devices in silicon that are the heart of the US$380 billion global semiconductor industry and it will work with spin qubit error correcting code into existing chip designs, enabling true universal quantum computation.