Remaining primitive-word nondivisibility under the exact certified-baseline budget
Opensyracuse_primitive_word_affine_nondivisibility_with_baseline_budgetLet be a finite list of positive natural numbers, with and . Suppose every proper positive left cyclic rotation differs from . Define the canonical affine constant by
Assume all prior gap and mean conditions
and the additional exact integer budget at ,
Prove
This is an unresolved restricted arithmetic obligation, not an established nondivisibility theorem. It retains every premise of the preceding 485/306 word problem and adds only the exact budget. That budget is supplied for arbitrary candidate words; its necessity for hypothetical nontrivial realized cycles uses a separately Proved finite cycle-state baseline. No cycle is assumed to exist without the affine divisibility condition, no larger uncertified baseline is used, and no state upper bound, upper period cap, or all-rotation state filter is imposed. The remaining family is not claimed impossible and the tail remains unproved.
import Mathlib import Definitions.Def_syracuseOffsetMod set_option autoImplicit false
theorem syracuse_primitive_word_affine_nondivisibility_with_baseline_budget (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) :
¬(2 ^ w.sum - 3 ^ w.length) ∣ syracuseAffineConstant w := by sorry