The Inflation Curve Is the Exponential Amplification of the Linearly Unstable Mode of the Floor: The Largest Eigenvalue of the Floor Jacobian and Non-Normal, Time-Varying Corrections

Paper 6 of the series "Foundations of Self-Consistent Relational-Wave Closed Systems" (10 papers). The inflation curve H_perp/H(t) ~ seed^2 |mu_max|^{2t} is the exponential amplification of the linearly unstable mode of the floor: ramp slope 2 log10|mu_max|, onset ~ ln(1/seed)/ln|mu_max|, exact agreement with the frozen-floor Jacobian (N=6: 0.2935 vs 0.2937). The measured rate is 18-31% steeper than the floor value = a non-normal (0.53-0.76) time-ordered product of the time-varying Jacobian. This paper is the analytic derivation of the mechanism refining the prior inflation paper (Concept 10.5281/zenodo.22112008); the real amplification rate is the finite-time Lyapunov rate gamma_t of the tangent cocycle Phi(t,0)=prod J(z_t) (mu_max is its lower bound = a two-stage dynamics). Author: Noriaki Kihara (WF System Co., Ltd.), ORCID 0009-0004-6753-4020.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-09-12
DOI
https://doi.org/10.5281/zenodo.22729096
Primary Topic
Chaos control and synchronization
Type
preprint
Controls
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preprint

The Inflation Curve Is the Exponential Amplification of the Linearly Unstable Mode of the Floor: The Largest Eigenvalue of the Floor Jacobian and Non-Normal, Time-Varying Corrections

Noriaki Kihara
Zenodo (CERN European Organization for Nuclear Research)
Chaos control and synchronization
preprint

The Inflation Curve Is the Exponential Amplification of the Linearly Unstable Mode of the Floor: The Largest Eigenvalue of the Floor Jacobian and Non-Normal, Time-Varying Corrections

Noriaki Kihara
preprint en

Abstract

Paper 6 of the series "Foundations of Self-Consistent Relational-Wave Closed Systems" (10 papers). The inflation curve H_perp/H(t) ~ seed^2 |mu_max|^{2t} is the exponential amplification of the linearly unstable mode of the floor: ramp slope 2 log10|mu_max|, onset ~ ln(1/seed)/ln|mu_max|, exact agreement with the frozen-floor Jacobian (N=6: 0.2935 vs 0.2937). The measured rate is 18-31% steeper than the floor value = a non-normal (0.53-0.76) time-ordered product of the time-varying Jacobian. This paper is the analytic derivation of the mechanism refining the prior inflation paper (Concept 10.5281/zenodo.22112008); the real amplification rate is the finite-time Lyapunov rate gamma_t of the tangent cocycle Phi(t,0)=prod J(z_t) (mu_max is its lower bound = a two-stage dynamics). Author: Noriaki Kihara (WF System Co., Ltd.), ORCID 0009-0004-6753-4020.

Zenodo (CERN European Organization for Nuclear Research)
Chaos control and synchronization
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