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Formation of plasma periodic structures in the volume of fused silica exposed by focused laser radiation with a wavelength of 1030 nm
Russian version
Bogatskaya A.V. 1,2, Popov A.M. 1,2
1Lomonosov Moscow State University, Moscow, Russia
2Lebedev Physical Institute, Russian Academy of Sciences, Moscow, Russia
Email: annabogatskaya@gmail.com, alexander.m.popov@gmail.com
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Femtosecond laser writing of birefringent subwavelength nanostructures in dielectrics has been studied for almost two decades since it is of interest for a number of practical applications such as optical memory, optical waveguides, microfluidic channels, etc. In this work, a numerical modeling of the formation of plasma periodic nanostructures in fused silica in the direction of propagation of a focused laser beam is carried out. It is shown that the focused beam creates a plasma layer with a supercritical concentration of electrons which provides an effective reflection of the incident laser pulse, leading to the formation of a standing wave of ionization. Effective ionization occurs in the bungles of wave, that forms a plasma lattice with a period equal to the period of the standing wave in the medium. Modeling allows us to determine the conditions under which the proposed regime of nanostructuring is possible. Keywords: laser microstructuring in dielectrics, birefringent nanostructures, fused silica, electron-hole plasma, nano- and micromodifications, multiphoton ionization in strong fields.
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