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Simulation and Analysis of Ultrafast-Laser-Pulse-Induced Plasma Generation in Fused Silica
Optical Engineering (2008)
  • Jeremy R Gulley, Kennesaw State University
  • Sebastian W. Winkler, University of Georgia
  • W. M. Dennis, University of Georgia

Recent experiments on optical damage by ultrashort laser pulses have demonstrated that the temporal pulse shape can dramatically influence plasma generation in fused silica. We use a modified 3+1D nonlinear Schrödinger equation for the pulse propagation coupled to a rate equation for the plasma density in the dielectric material to simulate pulse propagation and plasma formation in fused silica. We use these simulations to analyze the influence of pulse shape and beam geometry on the formation of the electron plasma and hence modification in the bulk material. In particular, we simulate the effect of pulses reconstructed from experimental data. It is expected that a better understanding of the dynamics of laser-induced plasma generation will enable the accurate simulation of optical damage in a variety of dielectrics, ultimately leading to an enhanced control of optical damage to real materials and optical devices.

  • ultrafast pulse propagation,
  • plasma generation,
  • fused silica
Publication Date
May 12, 2008
Citation Information
Jeremy R Gulley, Sebastian W. Winkler and W. M. Dennis. "Simulation and Analysis of Ultrafast-Laser-Pulse-Induced Plasma Generation in Fused Silica" Optical Engineering Vol. 47 Iss. 5 (2008)
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