IndisputableMonolith.Foundation.LogicRealConstants
Defines Recognition Science fundamental constants on the recovered LogicReal line: golden ratio, tick, eight-tick octave, J-bit, coherence energy, ħ, G, Einstein κ, and α⁻¹. Transport lemmas identify each with its Mathlib real counterpart via the LogicReal equivalence. Downstream LogicReal cost and physics layers import this as the native constant surface. Structure is definitional bindings plus toReal equalities, not a deep derivation.
claimOn the recovered real line $\mathrm{LogicReal}$, the module introduces $\varphi_L$, the tick $\tau_L$, the octave period $2^3$, $J_{\mathrm{bit},L}$, $E_{\mathrm{coh},L}$, $\hbar_L$, $G_L$, $\kappa_{E,L}$, and $\alpha^{-1}_L$, with transport equalities $\mathrm{toReal}(c_L)=c$ matching each Mathlib $\mathbb{R}$ RS constant (including the certified $\alpha^{-1}$ band).
background
Recognition Science works in RS-native units with $c=1$, $\hbar=\varphi^{-5}$, $G=\varphi^5/\pi$, and $\alpha^{-1}$ forced into $(137.030,137.039)$. The golden ratio $\varphi$ is the self-similar fixed point (forcing step T6); the eight-tick octave is period $2^3$ (T7). The ordinary Mathlib constants live in Constants and Constants.Alpha; the EM certificate records the assembled coupling $\alpha^{-1}=\alpha_{\mathrm{seed}}\cdot\exp(-f_{\mathrm{gap}}/\alpha_{\mathrm{seed}})$ with $\alpha_{\mathrm{seed}}=4\pi$ and $f_{\mathrm{gap}}=w_8\ln\varphi$, not a fit to the infrared measurement.
LogicReal is the recovered real line, equivalent to Mathlib $\mathbb{R}$ by LogicReal.equivReal. LogicRealTranscendentals transports standard transcendental functions across that equivalence so later modules can stay on LogicReal and reduce proofs by toReal. This module is the constant layer of that transport: each RS landmark is named as a LogicReal value and tied back to the already-verified real constant.
proof idea
Definition module, not a theorem development. Each constant (phiL, tickL, octaveL, JbitL, EcohL, hbarL, gravL, kappaEinsteinL, alphaInvL) is introduced by transport or direct binding from the Mathlib/RS constant surface. Companion lemmas (toReal_phiL, toReal_tickL, toReal_octaveL, and siblings) are one-line transport equalities through LogicReal.toReal / the real equivalence. No independent forcing or numerical derivation happens here; those live upstream in Constants, Alpha, and EMAlphaCert.
why it matters in Recognition Science
Gives the LogicReal physics stack a single native constant dictionary so cost and dynamics never drop to bare Mathlib reals mid-argument. Immediate consumer is Cost.JcostLogic, the reciprocal cost on recovered reals: a transport mirror of Cost.JcostCore whose definitions live on LogicReal and whose proofs reduce through toReal. That cost is the J-functional side of the Recognition Composition Law and the T5 uniqueness story ($J(x)=(x+x^{-1})/2-1$). By pinning $\varphi$, the tick/octave, $\hbar$, $G$, and the certified $\alpha^{-1}$ band on LogicReal, the module keeps the forcing-chain landmarks (T6 $\varphi$, T7 eight-tick) available wherever LogicReal reasoning continues.
scope and limits
- Does not derive φ, ħ, G, or α⁻¹; only transports already-defined RS constants onto LogicReal.
- Does not prove the EM α⁻¹ band; that certificate lives in EMAlphaCert.
- Does not define J-cost or prove RCL identities; those sit in Cost.JcostLogic and related modules.
- Does not establish LogicReal ≃ ℝ; that equivalence is assumed from the LogicReal foundation.
- Does not address mass-ladder rungs, Berry threshold, or dimensional forcing (T8).
used by (1)
depends on (4)
declarations in this module (25)
-
def
phiL -
def
tickL -
def
octaveL -
def
JbitL -
def
EcohL -
def
hbarL -
def
gravL -
def
kappaEinsteinL -
def
alphaInvL -
theorem
toReal_phiL -
theorem
toReal_tickL -
theorem
toReal_octaveL -
theorem
toReal_JbitL -
theorem
toReal_EcohL -
theorem
toReal_hbarL -
theorem
toReal_gravL -
theorem
toReal_kappaEinsteinL -
theorem
toReal_alphaInvL -
theorem
phiL_pos -
theorem
phiL_gt_one -
theorem
phiL_gt_onePointFive -
theorem
phiL_lt_onePointSixTwo -
theorem
hbarL_eq_phi_inv_fifth -
theorem
hbarL_bounds -
theorem
alphaInvL_bounds