<p>One of the main tools for studying piecewise smooth systems is the regularization process, which generates slow-fast systems. The analysis of these systems heavily relies on the famous Fenichel Theorems, which form the foundation of the Geometric Theory of Singular Perturbations. In this context, our current research focuses on studying slow-fast systems in <InlineEquation ID="IEq1"> <EquationSource Format="TEX">\(\mathbb {C}^2\)</EquationSource> </InlineEquation>. Specifically, we provide conditions to guarantee the existence of one-dimensional invariant complex manifolds. Consequently, this allows us to establish that the centers, foci, and nodes of the reduced problem are persistent by singular perturbation. The tools used by us are the usual techniques of Fenichel and Briot-Bouquet Theories.</p>

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On Holomorphic Slow-Fast Systems

  • Gabriel Rondón,
  • Paulo R. da Silva,
  • Luiz F. S. Gouveia

摘要

One of the main tools for studying piecewise smooth systems is the regularization process, which generates slow-fast systems. The analysis of these systems heavily relies on the famous Fenichel Theorems, which form the foundation of the Geometric Theory of Singular Perturbations. In this context, our current research focuses on studying slow-fast systems in \(\mathbb {C}^2\) . Specifically, we provide conditions to guarantee the existence of one-dimensional invariant complex manifolds. Consequently, this allows us to establish that the centers, foci, and nodes of the reduced problem are persistent by singular perturbation. The tools used by us are the usual techniques of Fenichel and Briot-Bouquet Theories.