Comparative studies of the weakly nonlinear evolution of hydrodynamic interface instabilities in 2D and 3D

Physics – Plasma Physics

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Scientific paper

Supernova explosions are virtual cauldrons of hydrodynamic instability activity. Due to the exceedingly strong shock triggered by the explosion, the interface instabilities are insensitive to the initial pressure distribution and gravity. Thus, the instability development can be modeled in the laboratory, in laser driven experiments. We developed a weakly nonlinear theory of interface evolution extended to third order perturbation theory.We evaluate the growth of the fundamental mode and higher harmonics into bubbles and spikes during the early nonlinear stages of perturbation evolution. We will compare the predictions of the growth of pre-imposed 3D and 2D interface perturbations with experiments using the Nova laser to model supernovae interface evolution. Good agreement between theory, experiments, and simulations were demonstrated for 2D perturbation growth.

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