Black holes and everyday physics

Physics – Condensed Matter – Statistical Mechanics

Scientific paper

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Astrophysics, Black Holes (Astronomy), Field Theory (Physics), Statistical Mechanics, Thermodynamics, Communication Theory, Entropy, Leptons, Neutrinos, Particle Theory, Quantum Theory, Quarks, Scalars

Scientific paper

Suggestions are made for ways to apply black hole theory in the fields of thermodynamics, particle physics, and communication theory. For thermodynamics, it is shown that an energy/entropy ratio defined for black holes can, in the case of large black holes, be bound so that a spherical system with negligible self-gravity be described by systems of nonrelativistic particles. An example is provided of a quantum scalar field of a certain energy confined to a cavity. A radius of the circumscribing sphere is demonstrated to be definable as the self-gravitating limit in which scalar, electromagnetic, and neutrino fields may be contained. The theory is further extended to set a limit on the number of quark, lepton, and neutrino species that may exist by setting the limit-radius of three quark (antiquark) combinations that may exist. Finally, the limit on information transfer is found to be 10 to the 15th arithmetic operations/sec.

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