IndisputableMonolith.Quantum.BlackHoleInformation
Black hole models in Recognition Science are built from a mass parameter, yielding the Schwarzschild radius, Bekenstein-Hawking entropy proportional to mass squared, Hawking temperature, and checks on holographic saturation. Quantum gravity researchers would cite these for information accounting in collapse. The module sequences definitions from the imported RS time quantum without proofs.
claimBlack hole characterized by mass $M$, with Schwarzschild radius $r_s(M)$, horizon area $A(M)$, Bekenstein-Hawking entropy $S_{BH}(M) = A/4$, Hawking temperature $T(M)$, information capacity, and holographic bound, all in RS units where $c=1$, $G = phi^5 / pi$, $hbar = phi^{-5}$.
background
The module sits in the quantum domain and imports the fundamental RS time quantum from Constants, described as: The fundamental RS time quantum (RS-native). τ₀ = 1 tick. It defines a black hole by its mass then derives radius, area, entropy, temperature, capacity, and bound, plus structures for falling entries and a ledger to track information.
proof idea
This is a definition module, no proofs.
why it matters in Recognition Science
Supplies black hole entropy and information capacity constructions that integrate with the phi-ladder mass formula and J-uniqueness from the forcing chain. It supports holographic bound analysis in the D=3 spatial setting and connects to the eight-tick octave periodicity.
scope and limits
- Does not prove information preservation during evaporation.
- Does not model the black hole interior geometry.
- Does not incorporate the Recognition Composition Law directly.
- Does not address rotating or charged black holes.
- Does not derive Hawking radiation from the J-cost functional equation.
depends on (1)
declarations in this module (25)
-
structure
BlackHole -
def
schwarzschildRadius -
def
horizonArea -
def
bekensteinHawkingEntropy -
theorem
entropy_proportional_to_mass_squared -
def
hawkingTemperature -
theorem
hawking_temperature_pos -
def
informationCapacity -
def
holographicBound -
theorem
bh_saturates_holographic -
structure
FallingEntry -
structure
BlackHoleLedger -
def
addEntry -
theorem
information_preserved_on_infall -
structure
HawkingQuantum -
structure
EvaporationProcess -
theorem
information_conservation -
theorem
page_curve -
theorem
no_information_paradox -
theorem
no_firewall -
theorem
er_equals_epr -
structure
BlackHolePredictions -
def
rsPredictions -
structure
BlackHoleFalsifier -
theorem
current_understanding_consistent