uantum and sub-neuronal biology (Stuart Hameroff, Erik Viirre), 3) new approaches in quantum physics, e.g. testing OR, quantum AI, and using desktop Bose-Einstein condensates to detect gravity waves, e.g. for earthquake early warning (Ivette Fuentes, Roger Penrose), and 4) cosmology, e.g. evaluating Roger's i

uantum and sub-neuronal biology (Stuart Hameroff, Erik Viirre), 3) new approaches in quantum physics, e.g. testing OR, quantum Al, and using desktop Bose-Einstein condensates to detect gravity waves, e.g. for earthquake early warning (Ivette Fuentes, Roger Penrose), and 4) cosmology, e.g. evaluating Roger's i

l matter is described by quantum mechanics, but this doesn't imply that the brain is a "macroscopic quantum system" in a strong sense (like, say, a Bose-Einstein condensate). And even if the brain does use quantum phenomena in EFTA00623784 1.7 Five Key Words 9 a dramatic way to carry out some of its cogni

all matter is described by quantum mechanics, but this doesn’t imply that the brain is a “macroscopic quantum system” in a strong sense (like, say, a Bose-Einstein condensate). And even if the brain does use quantum phenomena in HOUSE_OVERSIGHT_012924 1.7 Five Key Words 9 a dramatic way to carry out some of i

ed below a certain point, a phase transition occurs and all the Cooper pairs suddenly coalesce into a single quantum state. This phenomenon, called Bose-Einstein condensation, occurs because unlike fermions, particles with integral quantum mechanical spin, such as photons, or even particles with zero spin,

e. For most other goods that are wanted in limited quantities, the correct statistical mechanical approach will be some variation or modification of Bose-Einstein or Fermi-Dirac statistics. Such an approach could be very powerful, instead of using a single representative agent, as current macro-economic mode