Dynamic Responses of Supercritical Fluids: Experimental Investigations on Non-Linear Effects Across the Widom Region and Near-Critical Phase Transitions provides comprehensive information on the experimental techniques that can be used to measure the dynamic responses of near-to supercritical fluids, as well as an overview of the related physical phenomena involved. At the transition from liquid or gaseous fluid states into the supercritical regime, the macroscopic fluid response functions experience maxima, which results in a non-linear coupling between small perturbations in pressure and temperature and compressible flow dynamics. This leads to anomalous fluid phenomena, such as heat transfer deterioration and thermo-convective instabilities. Instead, the transition from supercritical to near-critical states is strongly dependent on the entry point into the two-phase dome. Moreover, it requires improved modelling of non-equilibrium phase transitions.
By applying laser-induced thermal acoustics, also known as laser-induced (transient) grating spectroscopy, the fluid response to an acoustic, pressure, and thermal perturbation can be investigated. Specifically, speed of sound, thermal diffusivities, and acoustic damping rates, are measured. By applying a thermodynamic model, the latter are used to determine volume viscosities at near- to supercritical fluid states. By applying polarised Mie scattering, insights on the type of phase transitions can be inferred together with quantitative data on the average size, and droplet size distribution can be obtained. Dynamic Responses of Supercritical Fluids: Experimental Investigations on Non-Linear Effects Across the Widom Region and Near-Critical Phase Transitions is written for applied physicists, engineers, graduate and doctoral students in chemical engineering, process engineering, and aerospace engineering.
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