Quantum fluctuations could ‘melt’ a spin glass into an ultrafast, highly entangled state
Phys.org reports that a team led by University at Buffalo physicists found a mathematical solution showing how a quantum magnet can shift from ultraslow to ultrafast, highly entangled behavior.
TLDR
Phys.org reports that a team led by University at Buffalo physicists found a mathematical solution showing how a frustrated quantum magnet can transition from ultraslow to ultrafast, highly entangled behavior. The outlet says quantum fluctuations can “melt” a spin glass into such a state, reversing the usual expectation that lower temperatures freeze matter more firmly.
Quantum fluctuations could ‘melt’ a spin glass into an ultrafast, highly entangled state
Phys.org reports that a team led by University at Buffalo physicists found a mathematical solution showing how a quantum magnet can shift from ultraslow to ultrafast, highly entangled behavior.
TLDR
Phys.org reports that a team led by University at Buffalo physicists found a mathematical solution showing how a frustrated quantum magnet can transition from ultraslow to ultrafast, highly entangled behavior. The outlet says quantum fluctuations can “melt” a spin glass into such a state, reversing the usual expectation that lower temperatures freeze matter more firmly.