IndisputableMonolith.Gravity.HawkingTemperatureSI
SI packaging of Hawking temperature for Schwarzschild holes: Boltzmann constant, SI temperature and radius, and bridge identities to the RS-native rung form. Cited by black-hole entropy and the gravity master theorem when matching RS predictions to laboratory units. Argument is definitional plus one-line rewrites through the SI calibration map.
claimThe module fixes the SI Boltzmann constant $k_B$ (exact since SI 2019), defines the SI Hawking temperature $T_H^{\mathrm{SI}}(M)$ and Schwarzschild radius $r_s^{\mathrm{SI}}(M)$ for mass $M>0$, proves $T_H^{\mathrm{SI}}>0$ and strict decrease in $M$, and equates the geometric and SI forms of $T_H$ via the RS-to-SI calibration bridge.
background
Recognition Science states Hawking temperature first in RS-native units from rung spacing on the phi-ladder (Track G2). That native identity is structural and axiom-free, but comparison with SI data needs the dimensional bridge closed in SIBridgeClosure: a unique calibration map from RS-native units to SI once the dimensional anchor is fixed.
This module sits on that bridge. It records $k_B$ as the exact SI 2019 constant, builds $T_H$ and $r_s$ in SI from the native Hawking formula and the bridge, and states the two-way equalities between geometric and SI expressions. Sibling lemmas cover positivity of $k_B$ and $T_H$, positivity of $r_s$, and strict anti-monotonicity of $T_H$ in mass.
Local setting is Gravity Track work that converts RS-native black-hole thermodynamics into SI so entropy and master statements can quote laboratory units without reopening the calibration.
proof idea
Definition-heavy module, not a deep proof development. Constants and SI forms of $T_H$ and $r_s$ are introduced by def; positivity and strict anti-monotonicity follow from the corresponding native facts plus positivity of the bridge factors and $k_B$. The two bridge theorems are thin wrappers: rewrite the native Hawking identity across the SI calibration map in each direction (geom via bridge, SI via bridge). No new analytic content beyond transport along SIBridgeClosure and HawkingTemperatureFromRung.
why it matters in Recognition Science
Closes the SI face of Hawking temperature so later gravity tracks need not re-derive unit conversion. BlackHoleEntropySI imports it for Track 3.B (black-hole entropy in SI, with discriminator margins against LQG and strings). MasterTheorem imports it for Track 7.A, the conditional gravity master statement gated on the seven tracks.
Upstream, it consumes the structural native Hawking identity from rung spacing and the unique RS-to-SI calibration. In the broader framework it is the unit-transport step that lets RS black-hole thermodynamics speak SI without new axioms. It does not itself settle entropy area laws or the full master claim; those live downstream.
scope and limits
- Does not derive Hawking temperature from first principles; transports the native rung form.
- Does not prove the SI bridge; assumes SIBridgeClosure.
- Does not treat Kerr/Newman or evaporating dynamical horizons.
- Does not compute numerical SI values for specific masses.
- Does not establish Bekenstein-Hawking entropy; that is downstream.
used by (2)
depends on (2)
declarations in this module (25)
-
def
k_B_SI -
theorem
k_B_SI_pos -
def
T_hawking_SI -
theorem
T_hawking_SI_def -
theorem
hawking_temperature_SI -
theorem
T_hawking_SI_pos -
theorem
T_hawking_SI_strict_anti -
theorem
T_hawking_SI_eq_geom_via_bridge -
theorem
T_hawking_geom_eq_SI_via_bridge -
def
schwarzschildRadius_SI -
theorem
schwarzschildRadius_SI_def -
theorem
schwarzschildRadius_SI_pos -
theorem
T_hawking_SI_eq_inv_schwarzschildRadius -
def
t_Page_SI -
theorem
t_Page_SI_def -
def
K_Page_SI -
theorem
K_Page_SI_pos -
theorem
t_Page_SI_eq_K_mul_M_cube -
theorem
t_Page_SI_pos -
theorem
t_Page_SI_strict_mono -
theorem
t_Page_SI_squared_planck_form -
structure
HawkingTemperatureSICert -
def
hawkingTemperatureSICert -
theorem
hawkingTemperatureSICert_inhabited -
theorem
hawking_temperature_SI_one_statement