Remaining primitive-word nondivisibility with every rotated affine state above the certified baseline
Opensyracuse_primitive_word_affine_nondivisibility_with_rotated_baselineLet be a list of positive natural numbers, with and . Assume every proper positive cyclic rotation differs from . Define the canonical affine constant by
Retain the power gap, both strict mean conditions, and the exact global budget at :
Put . Assume additionally that every indexed rotation meets the word-dependent certified-baseline filter:
Prove
This is an unresolved restricted arithmetic obligation. The new filter is an explicit premise on arbitrary candidate words, not an assertion that they automatically satisfy it. Its necessity for nontrivial realized cycles follows from a separately Proved finite cycle-state baseline and exact affine divisibility realization. No actual cycle is assumed before divisibility, no larger uncertified baseline is used, and no state upper bound or period cap is introduced. The remaining family and Collatz convergence are not claimed proved.
import Mathlib import Definitions.Def_syracuseOffsetMod set_option autoImplicit false
theorem syracuse_primitive_word_affine_nondivisibility_with_rotated_baseline (w : List ℕ)
(hpositive : ∀ a ∈ w, 0 < a)
(hlength : 6291 ≤ w.length)
(hprimitive : ∀ d : ℕ, 0 < d → d < w.length → w.rotate d ≠ w)
(hgap : 3 ^ w.length < 2 ^ w.sum)
(hlow : 200 * w.sum < 317 * w.length)
(hlowSharp : 306 * w.sum < 485 * w.length)
(hbaselineBudget : (2 : ℕ) ^ w.sum * (2310000 : ℕ) ^ w.length ≤
(3 * 2310000 + 1 : ℕ) ^ w.length)
(hrotatedBaseline : ∀ d : ℕ, d < w.length →
(2310000 : ℕ) * (2 ^ w.sum - 3 ^ w.length) ≤
syracuseAffineConstant (w.rotate d)) :
¬(2 ^ w.sum - 3 ^ w.length) ∣ syracuseAffineConstant w := by sorry