IndisputableMonolith.Quantum.BlackHoleInformation
This module defines black hole objects and their geometric, thermodynamic, and information properties inside the Recognition Science framework. It introduces BlackHole parameterized by mass together with derived quantities such as Schwarzschild radius, horizon area, Bekenstein-Hawking entropy, Hawking temperature, information capacity, and the holographic bound. Researchers working on quantum gravity and the black-hole information paradox would cite these definitions to place classical solutions inside RS-native units. The module consists of a
claimLet $M$ be the mass of a black hole. Define the Schwarzschild radius $r_s = 2GM$, horizon area $A = 4π r_s^2$, Bekenstein-Hawking entropy $S_{BH} = A/4$, Hawking temperature $T_H$, information capacity, and the statement that black holes saturate the holographic bound.
background
The module sits in the quantum domain of Recognition Science and imports the fundamental RS time quantum τ₀ = 1 tick from Constants. It introduces BlackHole as the central structure characterized by its mass. Key definitions include schwarzschildRadius, horizonArea, bekensteinHawkingEntropy, entropy_proportional_to_mass_squared, hawkingTemperature, informationCapacity, holographicBound, bh_saturates_holographic, FallingEntry, and BlackHoleLedger. These objects supply the geometric and ledger structures needed to discuss information flow at horizons.
proof idea
This is a definition module, no proofs.
why it matters in Recognition Science
This module supplies the core objects for black-hole information accounting in Recognition Science. It provides the base layer that later theorems on quantum information preservation and holographic principles will reference, connecting mass scaling on the phi-ladder to entropy and capacity bounds.
scope and limits
- Does not derive the Hawking radiation spectrum.
- Does not address the information paradox resolution.
- Does not compute explicit numerical entropy values in RS units.
- Does not prove unitarity of evaporation.
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