IndisputableMonolith.Foundation.AlphaCoordinateFixation
The AlphaCoordinateFixation module computes the first four derivatives of CostAlphaLog and proves that high calibration pins alpha to one, which implies the J-function form. Researchers tracing the forcing chain would cite these identities to justify the WLOG alpha-equals-one reduction after the upstream calibration step. The module structure consists of successive differentiation lemmas followed by implication theorems under the high-calibration hypothesis.
claimThe first derivative satisfies $d/dt$ CostAlphaLog($alpha$)(t) = sinh($alpha$ t)/$alpha$. High calibration forces $alpha=1$, which implies the cost takes the form $J(x)$ where $J(x)=(x+x^{-1})/2-1$.
background
This module sits in the foundation layer and imports the Cost module together with the WLOGAlphaOne result. The upstream proposition states: After calibration kappa(F)=1 forces c=2 alpha squared, the calibrated solution family is F_alpha(x)=(1/alpha squared)(cosh(alpha ln x)-1) for alpha greater than or equal to 1. It further records that F_alpha(x)=(1/alpha squared) J(x^alpha) with J(x)=(x+x inverse)/2 minus 1. The module introduces CostAlphaLog as the cost expressed in logarithmic coordinates and derives its derivatives to support the alpha-fixation step.
proof idea
The module first establishes hasDerivAt for the initial derivative of costAlphaLog and equates it to sinh(alpha t)/alpha. It repeats the differentiation for the second, third, and fourth orders, evaluates the fourth derivative at zero, then proves the high-calibration condition implies alpha pinned to one and that this pinning yields the J-form via the upstream equivalence.
why it matters in Recognition Science
This module supplies the alpha pinning required by the master forcing-chain theorem exposed in the root IndisputableMonolith module. It completes the coordinate-rescaling step begun in the WLOGAlphaOne proposition, enabling the reduction to the self-similar J-cost that appears in the T5 J-uniqueness landmark of the forcing chain. By fixing alpha to one it opens the path to the eight-tick octave and D=3 derivations that follow.
scope and limits
- Does not derive the explicit definition of CostAlphaLog itself.
- Does not prove the Recognition Composition Law.
- Does not address the phi-ladder mass formula or Berry threshold.
- Does not connect to the Standard-Model Higgs chain.
used by (1)
depends on (2)
declarations in this module (16)
-
lemma
hasDerivAt_costAlphaLog_first -
lemma
deriv_costAlphaLog_eq -
lemma
hasDerivAt_costAlphaLog_second -
lemma
deriv_deriv_costAlphaLog_eq -
lemma
hasDerivAt_costAlphaLog_third -
lemma
deriv_deriv_deriv_costAlphaLog_eq -
lemma
hasDerivAt_costAlphaLog_fourth -
theorem
costAlphaLog_fourth_deriv_at_zero -
def
IsHighCalibratedLog -
theorem
costAlphaLog_high_calibrated_iff -
theorem
alpha_pin_under_high_calibration -
theorem
alpha_pinned_to_one_implies_J -
theorem
J_uniquely_calibrated_via_higher_derivative -
structure
AlphaCoordinateFixationCert -
def
alphaCoordinateFixationCert -
theorem
alphaCoordinateFixationCert_inhabited