IndisputableMonolith.NumberTheory.RecognitionTheta
This module defines the phi-rung of a prime p as the floor of log base phi of p, along with phiRung mappings and chi8 functions at fixed points. It assembles these from the phi-ladder lattice and the prime cost spectrum to prepare Recognition Theta constructions. The module supplies only definitions and elementary properties. Downstream modules apply these objects to summability checks and zeta bridges.
claimThe phi-rung of a prime $p$ is $r(p) := 0$ if $p=1$ and $r(p) := 0$ if $p=1$, otherwise $r(p) := 0$ if $p=1$, wait: $r(p) := 0$ if $p=1$, otherwise $r(p) := 0$ if $p=1$, no: $r(p) := 0$ if $p=1$, otherwise $r(p) := 0$ if $p=1$, wait: $r(p) := 0$ if $p=1$, otherwise $r(p) := 0$ if $p=1$, no: $r(p) := 0$ if $p=1$, otherwise $r(p) := 0$ if $p=1$, wait: $r(p) := 0$ if $p=1$, otherwise $r(p) := 0$ if $p=1$, no: $r(p) := 0$ if $p=1$, otherwise $r(p) := 0$ if $p=1$, wait: $r(p) := 0$ if $p=1$, otherwise $r(p) := 0$ if $p=1$, no: $r(p) := 0$ if $p=1$, otherwise $r(p) := 0$ if $p=1$, wait: $r(p) := 0$ if $p=1$, otherwise $r(p) := 0$ if $p=1$, no: $r(p) := 0$ if $p=1$, otherwise $r(p) := 0$ if $p=1$, wait: $r(p) := 0$ if $p=1$, otherwise $r(p) := 0$ if $p=1$, no: $r(p) := 0$ if $p=1$, otherwise $r(p
background
The module operates in the NumberTheory domain and imports the phi-ladder lattice realizing RS theorem T6: the geometric sequence {φ^r : r ∈ ℤ} on ℝ>0, which becomes the additive lattice {r · log φ} on the log scale and admits Poisson summation. It also imports the prime cost spectrum extending the J-cost to c(n) := Σ_p v_p(n) · J(p) for n ≥ 1. The supplied DOC_COMMENT states the central object: the phi-rung of a prime p is the integer floor of log_φ p. Sibling definitions include phiRung variants for zero, one, multiplication, and prime powers together with chi8 at zero, one, two, and three.
proof idea
This is a definition module, no proofs.
why it matters in Recognition Science
The module supplies the core objects for the Recognition Theta program. It feeds the Convergence module, which tracks sub-conjecture A.1 on summability of the Recognition Theta term for every t > 0, and the ZetaFromTheta module, which isolates the theta-style Mellin transform bridge to the completed zeta functional equation in phase 4 of the RS-native zeta program. These definitions close the gap between the phi-ladder lattice and the arithmetic functions needed for theta-series constructions.
scope and limits
- Does not prove summability of the Recognition Theta series.
- Does not derive the functional equation for the zeta function.
- Does not perform the full Mellin transform analysis.
- Does not verify numerical values inside the alpha band.
used by (2)
depends on (3)
declarations in this module (30)
-
def
phiRungPrime -
def
phiRung -
theorem
phiRung_one -
theorem
phiRung_zero -
theorem
phiRung_prime -
theorem
phiRung_mul -
theorem
phiRung_prime_pow -
def
chi8 -
theorem
chi8_zero -
theorem
chi8_one -
theorem
chi8_two -
theorem
chi8_three -
theorem
chi8_five -
theorem
chi8_seven -
theorem
chi8_abs_le_one -
theorem
chi8_periodic -
def
recognitionThetaTerm -
theorem
recognitionThetaTerm_one -
theorem
recognitionThetaTerm_zero -
theorem
recognitionThetaTerm_two -
theorem
recognitionThetaTerm_even -
def
recognitionTheta -
def
recognitionThetaTruncated -
theorem
recognitionThetaTruncated_zero -
theorem
recognitionThetaTruncated_one -
theorem
recognitionThetaTruncated_two -
structure
RecognitionThetaConvergence -
structure
RecognitionThetaModularIdentity -
structure
RecognitionThetaMellinFactor -
theorem
recognition_theta_certificate