Sascha Hilgenfeldt

TL;DR: A review of single-bubble sonoluminescence can be found in this article, where the authors survey the major areas of research in this field and present an overview of what is known and outlines some directions for future research.

TL;DR: An experiment in which gentle (linear) bubble oscillations are sufficient to achieve rupture of lipid membranes and the bubble dynamics and the ensuing sonoporation can be accurately controlled.

TL;DR: In this paper, the authors present a model applicable to ultrasound contrast agent bubbles that takes into account the physical properties of a lipid monolayer coating on a gas microbubble, including buckling radius, the compressibility of the shell, and a break-up shell tension.

TL;DR: In this paper, a model applicable to ultrasound contrast agent bubbles that takes into account the physical properties of a lipid monolayer coating on a gas microbubble is presented. But it does not consider the effect of aging, or the resultant of repeated acoustic pressure pulses on bubbles.

TL;DR: In this paper, a new experimental method is presented using fluorescein dye to determine the spatial and temporal variations of the liquid volume fraction in aqueous foams This method was used for quantitative studies of liquid redistribution (drainage) in three types of experiments: forced, free, and pulsed drainage Characteristic quantities, such as the drainage velocity, show power-law dependences on experimental parameters that are inconsistent with traditional foam drainage models based on Poiseuille-type flow in the liquid-carrying channels (Plateau borders) of the foam.