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Dynamics in the Sakaguchi-Kuramoto model with two subpopulations [corrected]
Ping Ju1, Qionglin Dai1, Hongyan Cheng1
1School of Science, Beijing University of Posts and Telecommunications, Beijing, 100876, People's Republic of China.
Summary
This study explores coupled phase oscillators, finding that traveling wave states dominate over stationary ones. These dynamics, including generalized pi states, can be smoothly connected by adjusting parameters.
Area of Science:
- Complex systems
- Nonlinear dynamics
- Theoretical physics
Background:
- The Sakaguchi-Kuramoto model describes coupled oscillators.
- Understanding synchronization dynamics is crucial in various scientific fields.
- Investigating variants with multiple subpopulations reveals complex behaviors.
Purpose of the Study:
- To analyze the dynamics of a modified Sakaguchi-Kuramoto phase oscillator model.
- To investigate the interplay between two subpopulations with distinct parameters.
- To identify and characterize different emergent states, including stationary and traveling waves.
Main Methods:
- Utilizing the Ott-Antonson ansatz for analytical insights.
- Employing numerical simulations to explore model dynamics.
- Analyzing parameter spaces to understand state transitions.
Main Results:
- Identified stationary synchronous states, specifically generalized pi states.
- Observed two distinct types of traveling wave states.
- Demonstrated that traveling wave states represent the dominant dynamics.
- Found a smooth transition pathway between stationary and traveling wave states.
Conclusions:
- The studied Sakaguchi-Kuramoto variant exhibits rich dynamics beyond simple synchronization.
- Traveling waves are a prevalent emergent behavior in this two-subpopulation system.
- Parameter control allows for continuous transitions between different dynamic regimes.
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