A New Sweep Up/Down Phenomenon between the Chaotic and Regular Regions in a New R2L2D Circuit
Author(s) -
Erol Kurt,
Cihan Bingöl
Publication year - 2015
Publication title -
dergipark (istanbul university)
Language(s) - English
Resource type - Conference proceedings
DOI - 10.1145/2832987.2833027
Subject(s) - chaotic , amplitude , synchronization (alternating current) , constant (computer programming) , control theory (sociology) , physics , sensitivity (control systems) , electronic circuit , time constant , mathematics , mechanics , computer science , topology (electrical circuits) , electronic engineering , quantum mechanics , electrical engineering , engineering , control (management) , combinatorics , artificial intelligence , programming language
In this paper, we report a new and strange phenomena, which is encountered in a newly-developed circuit, namely R2L2D circuit. This new phenomena, which we called as the \"sweep up/down effect\" has been observed when the successive dynamic responses of the circuit have been explored by only adjusting the peak-to-peak amplitudes Vpp at a constant feeding frequency, namely f=65 KHz. In one of our recent paper [Kurt, et al, 2014], this new circuit has been explored for a wide feeding amplitude and frequency regimes, whereas this effect has not been recognized at that time due to the lack of sensitivity. However, the detailed observations prove that the sweep up/down effect governs the identification of the dynamics in terms of periodic and chaotic regimes. Thus it gives a kind of uncertainty region at the threshold of the regimes depending on the feeding voltage increase or decrease. Besides, for a certain system parameter, i.e. Vpp, the chaotic and periodic region co-exists phenomenologically. This effect becomes vital for the synchronization and encryption studies in the sense that the decrease/increase in amplitude certainly yield to regular or chaotic behavior in the output. In addition, the transitions from regular regime to the chaotic one or vice-verse takes place without any period doubling procedure apart from the traditional observations.
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