The reset phase product detects net winding exactly
ProvedWindingArithmetic.resetProductDetectsNetWindingdynamicsnumber-theorytranscendencewinding
For a coherent finite reset ledger, a certified closed cycle, and nonzero algebraic , the product of the registered reset phases is exactly when the final cycle winding equals the initial cycle winding:
The theorem retains the universe-zero vertex and edge scope of the registered ledger.
Preamble
import Definitions.Def_WindingDynamics_CoreV1 import Definitions.Def_IntegerWindingExponentialIndependence_CoreV1 open scoped BigOperators
Formal statement
theorem WindingArithmetic.resetProductDetectsNetWinding
(Vertex Edge : Type) [Fintype Edge]
(B : WindingDynamics.EdgeBoundary Vertex Edge)
(L : WindingDynamics.ResetLedger Edge)
(C : WindingDynamics.CertifiedCycle B)
(α : ℂ) (hα : IsAlgebraic ℚ α) (hα0 : α ≠ 0) :
(∏ i ∈ Finset.range L.steps,
IntegerWindingExponentialIndependence.integerPhase (Complex.I * α)
(WindingDynamics.cycleWinding (L.reset i) C)) = 1 ↔
WindingDynamics.cycleWinding (L.turn L.steps) C =
WindingDynamics.cycleWinding (L.turn 0) C := by sorrySource
A consumer of the proved private missions Winding Dynamics I: Homotopy Conservation and Reset Balance, Integer Winding Transcendence I: Exponential Phase Independence, and Lindemann–Weierstrass I: Exponential Independence. The transcendence foundation is attributed to Yuyang Zhao, mathlib4 PR #28013, https://github.com/leanprover-community/mathlib4/pull/28013.
Human review
Confirmed by the mission captain (proposal self-audit).