IndisputableMonolith.NumberTheory.HilbertPolyaCandidate
This module defines the multiplicative index for positive rationals as finitely supported functions from primes to integers. It supplies conversions toRat and costAt together with basic arithmetic lemmas. The definitions are imported by CostOperatorRegularity to construct the dense domain of finite-support states for the cost operator T_J. The module contains only definitions and supporting lemmas with no theorems.
claimThe index for the multiplicative group is the type of finitely supported functions from the set of primes to integers, equipped with toRat mapping each index to an element of the positive rationals and costAt evaluating the associated J-cost.
background
The module supplies number-theoretic infrastructure inside the Recognition Science formalization. Its doc-comment states that the index for the multiplicative group of positive rationals is a finitely-supported function from primes to integers. Sibling definitions include MultIndex (the type itself), toRat (the conversion back to a positive rational), costAt (the cost evaluation), and lemmas such as toRat_zero, toRat_add, toRat_neg that encode the group law. The module imports Cost to access the underlying J-cost and is used to build finite-support states.
proof idea
This is a definition module, no proofs.
why it matters in Recognition Science
The module supplies the index structure required by the downstream CostOperatorRegularity module. That module constructs the dense domain of finite-support states, proves symmetry on the domain, and states the three regularity sub-conjectures (essential self-adjointness, discrete spectrum, trace-class) for the candidate cost operator T_J. The index therefore anchors the operator-theoretic treatment of the Hilbert-Polya candidate inside the Recognition framework.
scope and limits
- Does not define or construct the cost operator T_J.
- Does not prove symmetry or any spectral property.
- Does not state the regularity sub-conjectures.
- Does not connect indices to zeta zeros or the Riemann hypothesis.
used by (1)
depends on (1)
declarations in this module (29)
-
abbrev
MultIndex -
def
toRat -
def
costAt -
theorem
toRat_zero -
theorem
toRat_pos -
theorem
toRat_add -
theorem
toRat_neg -
theorem
costAt_neg_eq -
abbrev
StateSpace -
def
diagOp -
theorem
diagOp_single -
def
shiftOp -
theorem
shiftOp_single -
def
shiftInvOp -
theorem
shiftInvOp_single -
def
involutionOp -
theorem
involutionOp_single -
theorem
involutionOp_involutive -
theorem
involutionOp_diagOp_comm -
theorem
involutionOp_shiftOp -
theorem
involutionOp_shiftInvOp -
theorem
shiftOp_shiftInvOp -
theorem
shiftInvOp_shiftOp -
def
primeHop -
theorem
involutionOp_primeHop -
def
candidateOp -
theorem
involutionOp_sum_primeHop -
theorem
involutionOp_candidateOp -
theorem
hilbert_polya_candidate_certificate