IndisputableMonolith.Foundation.CoupledRecognitionCores
CoupledRecognitionCores models the local quarter-turn core as a ququart carrier. It supplies the type QuquartState together with basis kets, modular arithmetic on four levels, and the operators ququartX and ququartZ. Researchers building operator algebras on top of recognition cores cite these carriers. The module consists solely of definitions.
claimThe local quarter-turn core is realized by a ququart carrier whose states live in a four-dimensional space equipped with basis vectors, predecessor and successor maps, addition and subtraction modulo four, and the operators $X_4$, $Z_4$.
background
The module belongs to the Foundation layer and imports only Mathlib. Its single doc-comment states that the local quarter-turn core is modeled as a ququart carrier. Sibling definitions introduce QuquartState as the carrier type, basisKet for the standard basis, prev4/add4/sub4 for cyclic arithmetic on four elements, and ququartX/ququartZ as the corresponding Pauli-like operators on that space.
proof idea
This is a definition module, no proofs.
why it matters in Recognition Science
The carrier definitions are imported by IndisputableMonolith.Foundation.OperatorCore.CoupledRecognitionCores, which constructs the operator-level structures for coupled recognition cores. The module therefore supplies the concrete four-level object required to realize the quarter-turn model inside the Recognition Science foundation.
scope and limits
- Does not contain theorems or proofs.
- Does not define the full coupled recognition core.
- Does not link to the forcing chain T0-T8 or the Recognition Composition Law.
- Does not derive physical constants or mass formulas.
used by (1)
declarations in this module (61)
-
abbrev
QuquartState -
def
basisKet -
def
prev4 -
def
add4 -
def
sub4 -
theorem
sub4_add4_cancel_core -
theorem
add4_sub4_cancel_core -
theorem
add4_eq_add4_iff_left_core -
def
ququartX -
def
ququartZ -
theorem
ququartX_basisKet -
theorem
ququartZ_basisKet -
lemma
ququartWeyl_relation_apply -
theorem
ququartWeyl_relation -
abbrev
CoupledCoreIndex -
abbrev
CoupledCoreSpace -
theorem
coupledCoreIndex_card -
def
phaseCharacter -
def
shiftedConfig -
def
addedConfig -
lemma
phaseCharacter_zero -
lemma
shiftedConfig_zero -
theorem
shiftedConfig_addedConfig -
theorem
addedConfig_shiftedConfig -
theorem
addedConfig_eq_addedConfig_iff_left -
def
tensorWeylMonomial -
theorem
tensorWeylMonomial_zero_zero -
def
coupledBasisKet -
theorem
coupledBasisKet_orthonormal -
theorem
tensorWeylMonomial_basisKet -
def
localWeylMonomial -
def
localOperatorInner -
theorem
basisKet_orthonormal -
theorem
sub4_add4_cancel -
theorem
add4_sub4_cancel -
theorem
localWeylMonomial_basisKet -
theorem
add4_eq_add4_iff_left -
lemma
I_pow_star_mul_self -
lemma
neg_I_pow -
lemma
I_pow_five -
lemma
scaled_basisKet_inner -
theorem
localWeylMonomial_self_inner -
theorem
localWeylMonomial_shift_orthogonal -
theorem
localWeylMonomial_phase_orthogonal -
theorem
localWeylMonomial_orthogonal_of_ne -
theorem
localWeylFamily_card -
lemma
scaled_coupledBasisKet_inner -
theorem
tensorWeylMonomial_basis_image_orthogonal -
def
coupledOperatorInner -
lemma
phaseCharacter_star_mul_self -
theorem
tensorWeylMonomial_self_inner -
theorem
tensorWeylMonomial_shift_orthogonal -
def
coupledCoreEquivFin -
def
embedState -
def
projectState -
theorem
projectState_embedState -
theorem
embedState_injective -
def
liftOperator -
theorem
liftOperator_intertwines -
theorem
self_le_four_pow_self -
theorem
finite_dimensional_exact_embedding