In order to implement the properties of mixed wet into reservoir modeling and simulation, sound representatives and validated capillary pressure and relative permeability correlations are required in the study of transition zones of carbonate reservoirs.
It is thus concluded that scale model simulation of sound propagation above a solid surface will give a systematic deviation from that in the full scale case.
Scale model simulation of sound propagation above a solid surface will give a systematic and calculable error in the predicted sound field, because the acoustic boundary layer above the surface has an apparent admittance which is not invariant under scaling.
Numerical simulations of sound radiation from perturbed round jets are used, firstly to explore the structure of the sound sources and then to carry out a parametric study of the effect of jet Mach number and jet temperature.
The integration of pilot-scale experiments and numerical simulations provides sound indications for the gasifier operation.
Finite element simulations of sound transmission in the airway phantom were performed.
Developments in numerical methods for problems governed by nonlinear partial differential equations underpin simulations with sound arguments in diverse areas of science and engineering.
The results show that by obtaining the propagation velocity of the flame from the simulations, the sound generation can be predicted accurately for unity Lewis number.
A case study is performed through the simulations of sound absorption in three porous materials, one made from aluminum and two from different polyurethane foams.
In this article, the effect of this acoustic scattering is examined by three-dimensional finite-element simulations of sound transmission in a turbofan inlet duct.
