Coherent multiple scattering: from atomic matter waves to light and vice versa

Abstract : This manuscript presents a selection of works on the coherent evolution of atomic matter waves in random potentials. In this context, a number of interference, « mesoscopic » phenomena surviving a disorder average are discussed, in particular in the regime where Anderson localization shows up: coherent backscattering, coherent forward scattering, mesoscopic echo and quantum boomerang effect. The interplay between weak atomic interactions and Anderson localization is also touched upon for spreading wave packets, a scenario frequently considered in experiments. The last chapter, finally, gives an overview of recent works by the author on multiple scattering of light in media of dimension « (2+1) ». These peculiar systems, originally introduced to demonstrate Anderson localization of light in 2D, have sparked a growing interest in the recent years, for light propagation is governed by an effective Schrödinger equation and thus mimics the behavior of a matter wave. We here show that when the vector character of light is properly taken into account, these systems in fact display a physics much richer than the one pertained to this sole analogy.
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Contributor : Nicolas Cherroret <>
Submitted on : Thursday, June 13, 2019 - 2:45:50 PM
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Nicolas Cherroret. Coherent multiple scattering: from atomic matter waves to light and vice versa. Disordered Systems and Neural Networks [cond-mat.dis-nn]. Sorbonne Université, 2018. ⟨tel-02151802⟩



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