2017
DOI: 10.3390/e19060280
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Approximation of Stochastic Quasi-Periodic Responses of Limit Cycles in Non-Equilibrium Systems under Periodic Excitations and Weak Fluctuations

Abstract: Abstract:A semi-analytical method is proposed to calculate stochastic quasi-periodic responses of limit cycles in non-equilibrium dynamical systems excited by periodic forces and weak random fluctuations, approximately. First, a kind of 1/N-stroboscopic map is introduced to discretize the quasi-periodic torus into closed curves, which are then approximated by periodic points. Using a stochastic sensitivity function of discrete time systems, the transverse dispersion of these circles can be quantified. Furtherm… Show more

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Cited by 3 publications
(1 citation statement)
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“…From the early phase-shift algorithm including the Hariharan algorithm and the Schwider algorithm to the current frequency-conversion phase-shift algorithm including the iterative algorithm and the principal element analysis method, we can come to a conclusion that the research of the frequency conversion phase shift algorithm has become the trend of modern phase-shift interferometry research [1]. Although the principal element analysis (PCA) and Advanced iterative algorithm (AIA) can be used to recover the phase information from a large number of phase-shifted interferogram efficiently [2][3][4][5], a series of error sources and the complexity of measured surface do exist in the actual measuring process [6,7]. And the traditional phase-shift interference algorithm exposes some drawbacks, such as the effect of noise and phase shift error on phase extraction precision of stochastic phase-shift algorithm [8], the influence of the background intensity and modulation system on phase-shift algorithm, and slow rate of operation as well as low precision of the result [3,9,10].…”
Section: Introductionmentioning
confidence: 99%
“…From the early phase-shift algorithm including the Hariharan algorithm and the Schwider algorithm to the current frequency-conversion phase-shift algorithm including the iterative algorithm and the principal element analysis method, we can come to a conclusion that the research of the frequency conversion phase shift algorithm has become the trend of modern phase-shift interferometry research [1]. Although the principal element analysis (PCA) and Advanced iterative algorithm (AIA) can be used to recover the phase information from a large number of phase-shifted interferogram efficiently [2][3][4][5], a series of error sources and the complexity of measured surface do exist in the actual measuring process [6,7]. And the traditional phase-shift interference algorithm exposes some drawbacks, such as the effect of noise and phase shift error on phase extraction precision of stochastic phase-shift algorithm [8], the influence of the background intensity and modulation system on phase-shift algorithm, and slow rate of operation as well as low precision of the result [3,9,10].…”
Section: Introductionmentioning
confidence: 99%