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February 27, 20260 citationsOpen Access

Finite-Horizon Structures V: Dynamics Compatible with the Homogeneous Invariant

ARAlexandre Ramakers

Key Points

  • The aim is to define and characterize admissible dynamics for structures with a homogeneous invariant in a mathematically rigorous manner.
  • Develop a categorical framework for admissible flows based on structure-preserving morphisms.
  • Characterize infinitesimal behavior using differential inclusions in logarithmic velocities.
  • Classify homogeneous regimes via scaling exponents and establish induced evolution inequalities.
  • Introduce internal gauge transformations and extend the theory to measured spaces with invariant-weighted measures.
  • Natural classes of monotone and homogeneous flows are defined and classified.
  • Identification of persistent regimes allows for deeper understanding of dynamics.
  • Confirmed relationships between structural viability and compensatory reparametrisations of the triplet.
  • Invariance principles are extended to broader classes of mathematical structures.

Abstract

This article develops a purely structural notion of admissible dynamics for abstract objects equipped with a homogeneous invariant. Building on the categorical framework introduced in the Finite-Horizon Structures series, it defines admissible flows as one-parameter families of structure-preserving morphisms and characterises their infinitesimal behaviour through differential inclusions in a closed convex cone of logarithmic velocities. The framework yields a natural class of monotone and homogeneous flows, together with a complete classification of homogeneous regimes in terms of scaling exponents. Induced evolution inequalities for the invariant are established, allowing the identification of monotone, invariant, and persistent regimes. Internal gauge transformations preserving the invariant are introduced, showing that structural viability is tied to the existence of compensatory reparametrisations of the underlying triplet rather than to any specific mechanism. The theory is further extended to measured spaces by introducing invariant-weighted measures and compatible flows satisfying multiplicative cocycle relations. All constructions are purely mathematical and independent of any physical interpretation.

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Cite This Study

Alexandre Ramakers (2026) studied this question.

synapsesocial.com/papers/69a1357fed1d949a99abf78ehttps://doi.org/10.5281/zenodo.18774460
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