IndisputableMonolith.Verification.Exclusivity.Framework
Abstract interface for physics frameworks in the exclusivity stack: algorithmic specifications (finite strings that generate states), zero-parameter predicates, measurement procedures, and framework isomorphisms. Downstream exclusivity and necessity modules import it as the shared vocabulary. Pure definition module; no theorems proved here.
claimA physics framework $\mathcal{F}$ carries an algorithmic specification (a finite string generating states), elements, measurement procedures, and structural derivations. Predicates record zero free parameters, non-static dynamics, derivation of observables, and the $\alpha^{-1}$ lock band; framework isomorphism compares two such structures.
background
Exclusivity arguments in Recognition Science need a uniform notion of "what counts as a physics framework" before they can force uniqueness of the RS cost $J$, the golden ratio fixed point $\varphi$, or the dimensionless surface. This module supplies that vocabulary, importing RS constants ($\tau_0 = 1$ tick) and the RecogSpec core/spec layers.
Central objects include an algorithmic specification (forward-declared as a finite string that generates states, to break a circular import with DiscreteNecessity), the predicate that a framework has such a spec, and the older identification of zero free parameters with countable algorithmic state space. Measurement procedures, structural derivations, non-static dynamics, parameter counts, the $\alpha^{-1}$ lock, and framework isomorphism round out the interface.
Downstream ParameterSurface notes that equating zero parameters with mere algorithmic spec captures countability but not "no adjustable numerical knobs" in the physics sense; that sharpening lives in later modules built on these types.
proof idea
Definition module: no proofs. It declares the shared types and predicates (algorithmic spec, physics framework, zero-parameter and non-static flags, measurement and derivation structure, framework isomorphism) used by the exclusivity and necessity layers. Forward declaration of the algorithmic-spec notion avoids a circular import with DiscreteNecessity.
why it matters in Recognition Science
Every exclusivity and necessity argument in the verification stack imports this module as the common framework language. Direct consumers include DimensionlessForcing, HierarchyTheorem, NontrivialityShim (non-trivial solutions: at least two distinct physical configurations), ParameterSurface (non-trivial formalization of zero free parameters beyond bare algorithmic countability), RCLDerivation, ConservationNecessity (conservation forced by the Meta-Principle), and RecognitionNecessity.
Without a shared PhysicsFramework / HasAlgorithmicSpec / FrameworkIso surface, the hierarchy and parameter-surface theorems could not state uniqueness or zero-knob claims uniformly. The module therefore sits under the exclusivity forcing chain that targets RS landmarks (J-uniqueness, $\varphi$, eight-tick structure) once frameworks are comparable and parameter-free in the stated sense.
scope and limits
- Does not prove uniqueness of any framework or force J, phi, or D = 3.
- Does not equate algorithmic countability with physics-sense zero free parameters; that sharpening is elsewhere.
- Does not prove non-triviality (at least two configurations); only supplies types for the shim.
- Does not derive conservation or recognition necessity; those modules only import the interface.
- Does not contain the full DiscreteNecessity development of algorithmic specs.
used by (7)
-
IndisputableMonolith.Verification.Exclusivity.DimensionlessForcing -
IndisputableMonolith.Verification.Exclusivity.HierarchyTheorem -
IndisputableMonolith.Verification.Exclusivity.NontrivialityShim -
IndisputableMonolith.Verification.Exclusivity.ParameterSurface -
IndisputableMonolith.Verification.Exclusivity.RCLDerivation -
IndisputableMonolith.Verification.Necessity.ConservationNecessity -
IndisputableMonolith.Verification.Necessity.RecognitionNecessity
depends on (3)
declarations in this module (19)
-
structure
AlgorithmicSpec -
def
HasAlgorithmicSpec -
structure
PhysicsFramework -
structure
Element -
structure
MeasurementProcedure -
structure
StructuralDerivation -
class
NonStatic -
def
HasZeroParameters -
def
ParameterCount -
def
alpha_inv_lock -
structure
DerivesObservables -
structure
FrameworkIso -
def
FrameworkEquiv -
def
iso -
theorem
refl -
theorem
symm -
theorem
trans -
def
unaryEncode -
lemma
length_unaryEncode