Е-Публикации
Технически университет - София

Abstract: Synchronization of satellite systems is crucial for achieving cost-effectiveness, flexibility, and extended area coverage. However, chaotic behavior in such systems presents significant challenges. This research inspects the chaos in satellite systems and introduces a cutting-edge solution - the Novel Integral Terminal Sliding Mode (NITSM) controller. Specifically tailored for synchronizing the angular velocities of chaotic Leader-Follower satellite systems, the NITSM controller effectively addresses chattering issues and demonstrates robustness against external disturbances like cosmic rays and solar storms. Through MATLAB simulations, the efficacy of the proposed method is verified, with comparisons made against a conventional approach. The results highlight the exceptional performance of the Novel Integral Terminal Sliding Mode controller, showcasing reduced response time, robust behavior, and a remarkable six-fold decrease in angular velocity synchronization error.

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