In this work, we present numerical simulation results for
shock-induced bubble collapse dynamics near tissue-like compliant
gelatin phase. We use a sharp-interface model for multiple materials
to represent the ambient liquid (water), the non-condensable gas
phase (air) and the gelatin phase. Employing multi-resolution techniques,
we investigate the complex interface dynamics and compare
the results with experimental data from literature. Our aim is
to understand and quantify the mechanisms observed during extracorporeal
shock-wave lithotripsy or sonoporation. Therefore, latestage
dynamics of the bubble collapse and tissue penetration are
presented.
«
In this work, we present numerical simulation results for
shock-induced bubble collapse dynamics near tissue-like compliant
gelatin phase. We use a sharp-interface model for multiple materials
to represent the ambient liquid (water), the non-condensable gas
phase (air) and the gelatin phase. Employing multi-resolution techniques,
we investigate the complex interface dynamics and compare
the results with experimental data from literature. Our aim is
to understand and quantify the mechanism...
»