IndisputableMonolith.Papers.GCIC.BekensteinFromLedger
The module assembles definitions deriving the Bekenstein bound from the RS ledger once D equals 3. Cosmologists and quantum gravity researchers cite it to connect Recognition Science constants to surface-scaling entropy limits. It proceeds via boundary exponents, cube isoperimetric ratios, and the equality G hbar equals one in RS units.
claimWith $D=3$ forced by the RS chain, the Bekenstein bound takes the form $S_A = A/4$ in units where $G_{rs} hbar_{rs}=1$, using boundary dimension $d=D-1=2$ and cube surface-to-volume ratios.
background
Recognition Science reaches T8 where three spatial dimensions are forced. The Cost module supplies the J-cost function satisfying the Recognition Composition Law. The Constants module sets the RS-native time quantum tau_0 to one tick along with G_rs = phi^5 / pi and hbar_rs = phi^{-5}. This module defines boundary_dimension as D minus one, boundary_exponent, cube_volume_surface, cube_sv_ratio, cube_isoperimetric, and the product G_hbar_product_eq_one to prepare the ledger-based entropy bound.
proof idea
This is a definition module, no proofs. It structures the argument through sequential definitions of geometric ratios, boundary scaling, and constant equalities that support the Bekenstein derivation.
why it matters in Recognition Science
The module supplies the ledger derivation of the Bekenstein bound imported by BrainHolography, which concludes that brain information access scales with surface area. It directly implements the T8 step (D equals 3) in the GCIC chain and closes the link from RS constants to holographic scaling.
scope and limits
- Does not derive the bound for non-cubic geometries.
- Does not include quantum corrections or loop effects.
- Does not compute explicit numerical entropy values.
- Does not address time-dependent ledger evolution.
used by (1)
depends on (2)
declarations in this module (17)
-
def
D -
theorem
boundary_dimension -
theorem
boundary_exponent -
theorem
cube_volume_surface -
theorem
cube_sv_ratio -
theorem
cube_isoperimetric -
def
G_rs -
def
hbar_rs -
theorem
G_hbar_product_eq_one -
theorem
G_rs_pos -
theorem
hbar_rs_pos -
def
info_per_voxel -
theorem
bekenstein_hawking_from_rs -
theorem
bekenstein_positive -
theorem
info_scales_subvolume -
theorem
sv_ratio_decreasing -
theorem
area_not_volume_certificate