Researchers at Google Quantum AI and Stanford University have observed the crossover between two regimes: interactions dominating and measurements dominating. They also demonstrated novel quantum teleportation by measuring all but two distant qubits, generating stronger entanglement between them.
Researchers at Google Quantum AI have successfully observed non-Abelian anyons, a type of particle predicted to break certain rules in physics. This breakthrough enables the creation of topological quantum computers, which can perform robust operations despite noise and errors.
Researchers at Google Quantum AI used a quantum processor to create bound states of interacting photons, which survived in a chaotic regime. The discovery challenges previous assumptions and has implications for many-body quantum dynamics and fundamental physics discoveries.
Physicists at Google Quantum AI have produced quantum states that exhibit special symmetries, protecting them from environmental noise. The researchers used superconducting qubits to realize symmetry-protected Majorana edge modes, which last longer than other quantum states.