IndisputableMonolith.Foundation.CostAxioms
The CostAxioms module declares the core axioms that any cost functional must obey in Recognition Science. It encodes Normalization (vanishing at unity), the Composition Law, Calibration, and related properties of J. These feed directly into the T5 uniqueness theorem. The module organizes the declarative foundation without proofs.
claimAxioms for the cost functional: Normalization $J(1)=0$; Composition $J(xy)+J(x/y)=2J(x)J(y)+2J(x)+2J(y)$; Calibration and symmetry conditions on $J:\mathbb{R}_+\to\mathbb{R}$.
background
This module belongs to the Foundation domain and imports Cost, FunctionalEquation, and CostUniqueness. Normalization encodes that perfect balance (ratio = 1) has no cost. Upstream, FunctionalEquation supplies lemmas for the T5 cost uniqueness proof. CostUniqueness states: "Any cost functional F satisfying symmetry, unit normalization, strict convexity, and calibration must equal Jcost on ℝ₊." The setting is the axiomatization of J prior to deriving its explicit form from the forcing chain.
proof idea
This is a definition module, no proofs. It declares the axioms Normalization, Composition, Calibration, CostFunctionalAxioms together with J properties (symmetry, nonnegativity, zero iff unity) that are referenced by the uniqueness theorem.
why it matters in Recognition Science
The module supplies the axiomatic inputs for the T5 uniqueness theorem in CostUniqueness, which shows any qualifying functional equals Jcost. It fills the axiom slot supporting J-uniqueness (T5) in the forcing chain and the Recognition Composition Law.
scope and limits
- Does not derive the explicit form of J.
- Does not prove the axioms hold for any physical model.
- Does not address extensions beyond the one-dimensional cost functional.
- Does not contain the uniqueness proof itself.
depends on (3)
declarations in this module (19)
-
class
Normalization -
class
Composition -
class
Calibration -
class
CostFunctionalAxioms -
def
J -
lemma
J_eq_Jcost -
theorem
J_symmetric -
theorem
J_nonneg -
theorem
J_eq_zero_iff -
theorem
J_arbitrarily_large_near_zero -
theorem
J_tendsto_atTop_as_x_to_zero -
def
Exists -
theorem
law_of_existence -
theorem
unity_is_unique_existent -
theorem
mp_from_cost -
theorem
nothing_costs_infinity -
theorem
Composition_implies_CoshAddIdentity -
theorem
Composition_Normalization_implies_symmetry -
theorem
uniqueness_specification