
We present a comprehensive mathematical formulation of the Ibaguner Fractal Operator (IFO) as a nonlinear exponential recursion derived from a variational free-energy principle. We prove that the maximal recursion intensity admitting real equilibria equals αIE = 1/e, termed the Ibaguner–Euler constant. This constant emerges simultaneously as a variational extremum, a saddle–node bifurcation threshold, a spectral degeneracy point, and a thermodynamic balance constant. Discrete and continuous formulations are analyzed, a renormalization structure is outlined, and stability properties are established. The result situates the IFO within nonlinear dynamics while preserving its interpretive role in the Quantum–Mathematical Trinity framework.
Ibaguner–Euler Constant, Thermodynamic Bifurcation, Ibaguner Fractal Operator (IFO), Variational Recursion Threshold, Spectral Structure
Ibaguner–Euler Constant, Thermodynamic Bifurcation, Ibaguner Fractal Operator (IFO), Variational Recursion Threshold, Spectral Structure
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