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Main Authors: Pandey, Ankan, Saha, Sandip, Ghosh, Dibakar
Format: Preprint
Published: 2025
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Online Access:https://arxiv.org/abs/2511.04621
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author Pandey, Ankan
Saha, Sandip
Ghosh, Dibakar
author_facet Pandey, Ankan
Saha, Sandip
Ghosh, Dibakar
contents The coupled Stuart-Landau equation serves as a fundamental model for exploring synchronization and emergent behavior in complex dynamical systems. However, understanding its dynamics from a comprehensive nonlinear perspective remains challenging due to the multifaceted influence of coupling topology, interaction strength, and oscillator frequency detuning. Despite extensive theoretical investigations over the decades, numerous aspects remain unexplored, particularly those that bridge theoretical predictions with experimental observations-an essential step toward deepening our understanding of real-world dynamical phenomena. This work investigates the complex dynamics of unidirectionally coupled non-isochronous Stuart-Landau oscillators. Calculations of steady-states and their stability analysis further reveal that periodic attractors corresponding to weak forcing or coupling regimes are dynamically unstable, which pushes the system towards quasiperiodic oscillation on the torus attractor. The mapping of parameter values with the kind of attractor of the oscillatory system is presented and classified into periodic, quasiperiodic, partially synchronized, and chaotic regions. The results of this study can be leveraged to design complex yet controllable dynamical architectures.
format Preprint
id arxiv_https___arxiv_org_abs_2511_04621
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Complex dynamics and route to quasiperiodic synchronization in non-isochronous directed Stuart-Landau triads
Pandey, Ankan
Saha, Sandip
Ghosh, Dibakar
Adaptation and Self-Organizing Systems
Dynamical Systems
Chaotic Dynamics
The coupled Stuart-Landau equation serves as a fundamental model for exploring synchronization and emergent behavior in complex dynamical systems. However, understanding its dynamics from a comprehensive nonlinear perspective remains challenging due to the multifaceted influence of coupling topology, interaction strength, and oscillator frequency detuning. Despite extensive theoretical investigations over the decades, numerous aspects remain unexplored, particularly those that bridge theoretical predictions with experimental observations-an essential step toward deepening our understanding of real-world dynamical phenomena. This work investigates the complex dynamics of unidirectionally coupled non-isochronous Stuart-Landau oscillators. Calculations of steady-states and their stability analysis further reveal that periodic attractors corresponding to weak forcing or coupling regimes are dynamically unstable, which pushes the system towards quasiperiodic oscillation on the torus attractor. The mapping of parameter values with the kind of attractor of the oscillatory system is presented and classified into periodic, quasiperiodic, partially synchronized, and chaotic regions. The results of this study can be leveraged to design complex yet controllable dynamical architectures.
title Complex dynamics and route to quasiperiodic synchronization in non-isochronous directed Stuart-Landau triads
topic Adaptation and Self-Organizing Systems
Dynamical Systems
Chaotic Dynamics
url https://arxiv.org/abs/2511.04621