Post-processing method ‘SEMO’ corrects qubit errors in quantum annealers, dramatically accelerating the optimization of solutions to complex, real-world problems.
Post-processing method ‘SEMO’ corrects qubit errors in quantum annealers, dramatically accelerating the optimization of solutions to complex, real-world problems.
Surface reconstructions complicate the separation of structural effects from intrinsic electronic physics in CeB6.
Adhering complex oxide membranes onto metallic TiN-coated polymers enables flexible electronics.
Doppler cloak confuses radars by altering the phase of incoming radar waves in real time.
Making quantum anomalies accessible to experimentalists could redefine next-generation technologies and device engineering.
Scientists created flexible probabilistic bits from custom polymers, offering a new, energy-efficient path for AI and machine learning using classical physics.
When the light absorbers are made very small, almost all the device performance metrics improve—but doing this is easier said than done.
An Ising machine built on lattice defects solves problems faster than conventional computers without the drawbacks of quantum systems.
“Magic angles” in twisted bismuth bilayers could induce superconductivity at more reasonable temperatures.
A new hybrid graphene incorporates new elements to help make the material magnetic for applications in electronics and computer science.