
1.AIPT, Aston University, Birmingham, West Midlands B4 7ET, UK
2.Acreo, Electrum 236, SE-16440, Kista, Sweden
3.Royal Institute of Technology (KTH), SE-1640, Stockholm, Sweden
SV Sergeyev, Email: s.sergeyev@aston.ac.uk
Published:2016-03,
Published Online:23 August 2015,
Received:20 April 2015,
Revised:27 July 2015,
Accepted:11 August 2015
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Kalashnikov, V. et al. Multi-scale polarisation phenomena. Light: Science & Applications, 5, e16011 (2016).
Kalashnikov, V. et al. Multi-scale polarisation phenomena. Light: Science & Applications, 5, e16011 (2016). DOI: 10.1038/lsa.2016.11.
Multi-scale methods that separate different time or spatial scales are among the most powerful techniques in physics
especially in applications that study nonlinear systems with noise. When the time scales (noise and perturbation) are of the same order
the scales separation becomes impossible. Thus
the multi-scale approach has to be modified to characterise a variety of noise-induced phenomena. Here
based on stochastic modelling and analytical study
we demonstrate in terms of the fluctuation-induced phenomena and Hurst R/S analysis metrics that the matching scales of random birefringence and pump–signal states of polarisation interaction in a fibre Raman amplifier results in a new random birefringence-mediated phenomenon
which is similar to stochastic anti-resonance. The observed phenomenon
apart from the fundamental interest
provides a base for advancing multi-scale methods with application to different coupled nonlinear systems ranging from lasers (multimode
mode-locked
random
etc.) to nanostructures (light-mediated conformation of molecules and chemical reactions
Brownian motors
etc.).
fibre Raman amplifiermulti-scale methodspolarisationstochastic calculations
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