IndisputableMonolith.Quantum.BekensteinHawking
The Quantum.BekensteinHawking module supplies Recognition Science definitions for Planck units and black hole entropy quantities. Quantum gravity researchers cite these when connecting horizon area to entropy via ledger capacity. The module consists entirely of definitions with no proofs.
claim$k_B = 1.380649 × 10^{-23} J/K$, $l_p$ Planck length, $A$ horizon area, $S_{BH} = k_B A / (4 l_p^2)$, with an alternative form $S$ derived from ledger capacity.
background
Constants module fixes the RS time quantum as τ₀ = 1 tick. Cost module supplies the J-cost and defect functions used throughout. The module then defines Planck length, area, mass and temperature, followed by BlackHole, schwarzschildRadius, horizonArea, bekensteinHawkingEntropy and entropy_from_ledger_capacity.
proof idea
This is a definition module, no proofs.
why it matters in Recognition Science
Supplies the quantum black hole objects that support derivations of entropy proportional to area and entropy from ledger capacity in the Recognition framework. It aligns with the phi-ladder and cost principles for thermodynamic quantities.
scope and limits
- Does not derive the area law from dynamics.
- Does not include quantum corrections to entropy.
- Does not address the information paradox.
depends on (2)
declarations in this module (28)
-
def
k_B -
def
planckLength -
def
planckArea -
def
planckMass -
def
planckTemperature -
structure
BlackHole -
def
schwarzschildRadius -
def
horizonArea -
def
bekensteinHawkingEntropy -
theorem
entropy_proportional_to_area -
def
entropyInBits -
theorem
entropy_from_ledger_capacity -
def
informationContent -
def
hawkingTemperature -
theorem
temperature_inverse_mass -
def
solarMassTemperature -
theorem
planck_mass_temperature -
theorem
temperature_from_tau0 -
def
surfaceGravity -
theorem
temperature_from_surface_gravity -
theorem
first_law -
theorem
second_law_classical -
def
hawkingPower -
def
evaporationTime -
theorem
solar_mass_lives_forever -
theorem
information_preserved -
def
predictions -
structure
BHThermodynamicsFalsifier