Published June 2, 2026 | Version v1
Conference paper Open

Origin of Feigenbaum Constant δ in the 14FT Framework: Chaos Convergence Rate at the 7/19 Critical Threshold (V19)

Description

Abstract

The Feigenbaum constant  is a fundamental constant in chaos theory. It governs the universal convergence ratio of period-doubling bifurcations leading to chaos in logistic maps and various nonlinear dynamical systems. First discovered by Mitchell Feigenbaum in 1975, δ exhibits universality across a broad class of nonlinear systems; however, its geometric and physical origins have remained unsolved for nearly five decades. Based on the Order Variation Theory (OVT) and the 14-Order Unified Field Theory (14FT), this paper reveals the intrinsic geometric origin of the Feigenbaum constant for the first time: δ denotes the convergence rate of the phase deviation angle θ approaching the critical threshold under the 14-fold rotational symmetry constraint of regular 14-hedron fundamental units. In the iterative process of successive system bifurcations, phase deviation evolution follows renormalization group scaling, and its universal scaling ratio exactly corresponds to the Feigenbaum constant. This paper derives δ using core 14FT constants (14, 7/19, 36, 1/80), with numerical results consistent with the standard value within an error of 0.001%. This work completes the systematic interpretation of fundamental physical and mathematical constants within the 14FT theoretical framework.

Files

Origin of Feigenbaum Constant δ in the 14FT Framework_ Chaos Convergence Rate at the 7_19 Critical Threshold (V19).pdf

Additional details

References

  • [1] Wen L K. Order Variation Theory (14-Order Unified Field Theory) (V7)[M]. Zenodo, 2026.
  • [2] Wen L K. Geometric Constants of the 14‑Order Unified Field Theory: π, 7/19, 1/80 (V12)[M]. Zenodo, 2026.
  • [3] Wen L K. Origin of Euler's Constant γ in the 14FT Framework (V17)[M]. Zenodo, 2026.
  • [4] Wen L K. Origin of Apéry's Constant ζ(3) in the 14FT Framework (V18)[M]. Zenodo, 2026.
  • [5] Feigenbaum, M. J. (1978). Quantitative universality for a class of nonlinear transformations. Journal of Statistical Physics, 19(1), 25-52.
  • [6] Feigenbaum, M. J. (1979). The universal metric properties of nonlinear transformations. Journal of Statistical Physics, 21(6), 669-706.