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October 1, 2025Algerian Journal of Signals and Systems1 citations

PSO-Based Fractional-Order PID Control for Stabilizing the Chaotic Lorenz-84 Atmosphere Model

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NMNasr-Eddine MellahSLSamir Ladaci

Key Points

  • The PSO-tuned FOPID controller successfully stabilizes the chaotic lorenz-84 model's behavior, ensuring reliable control over dynamics.
  • Numerical simulations reveal that the proposed method enhances trajectory tracking and robust stabilization against chaos.
  • Utilizing the grünwald–letnikov discretization method allows for accurate modeling of the fractional dynamics in the system.
  • The adaptation based on real-time state-space feedback contributes to efficiently suppressing chaotic oscillations.

Abstract

This study presents a novel control approach for stabilizing the chaotic behavior of the threedimensionalfractional-order Lorenz-84 atmosphere model. By leveraging the Grünwald–Letnikov discretization method, the fractional dynamics of the system are accurately modeled. A fractional-order proportional–integral–derivative (FOPID) controller is designed, with its parameters optimally tuned using Particle Swarm Optimization (PSO). The controller adapts the input signals based on real-time state-space feedback, enabling efficient suppression of chaotic oscillations. Numerical simulations demonstrate theeffectiveness of the PSO-tuned FOPID controller in achieving precise trajectory tracking and robust stabilization. The proposed method offers a promising solution for controlling fractional-order chaotic systems in atmospheric and other nonlinear contexts.

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Cite This Study

Mellah et al. (2025) studied this question.

synapsesocial.com/papers/68dd9537fe798ba2fc499605https://doi.org/10.51485/ajss.v10i3.278
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