University of Arizona Researchers Specialize in Quantum Error Correction, Ensure Proper Calculations Researchers Work to Ensure Accurate Decoding in Fragile Quantum States In brief… +
More Than Just Hype, What Does Quantum Supremacy Mean, Practically? What Is Quantum Supremacy? And Why Does It Matter? Read More… + The concept of
Study: Simulating Materials on Near-Term Quantum Computers Quantum simulations of materials on near-term quantum computers + Abstract + Quantum computers hold promise to enable efficient
It’s Not The Classical and It’s Not The Quantum: It’s Both Classical Computing and Quantum Computing Can Work Together Selected notes ~ + Quantum computing’s
Recent quantum computing developments have revealed possibilities of stable quantum environments that are ‘reasonable’ in resource requirements. The tool of “sampling complexity” plays into the power of a small quantum computer versus a classical computer. Sampling complexity, the tool, “…involves a mathematical tool—a standard measure of computational difficulty known as sampling complexity—that gauges how easy or hard it is for an ordinary computer to simulate the outcome of a quantum experiment.”
Computer science theorists have been troubled with answering just what problem could a quantum computer solve that a classical computer would ever possibly accomplish. Collaboration between Princeton University and Stanford University theorists believe they have an answer – finally. This piece explores the question: “[We] want to know, where does quantum computing fit into the world of classical complexity theory?”
Quantum key distribution (QKD), a method of distributing secret keys between two parties, is possible – today – in enabling perfect secrecy between two-parties. Researchers have recently shown this ability to maintain perfect secrecy over fiber-optic wires
