The phrase "fluid evolution" is correct and usable in written English.
It can be used to describe a process of change that is adaptable and continuous, often in contexts like biology, technology, or social dynamics.
Example: "The fluid evolution of technology has transformed the way we communicate and interact with one another."
Alternatives: "dynamic development" or "adaptive progression."
Details of the algorithms we employ to evolve the spacetime and couple it to the fluid evolution are given in Appendix 2.
After the analysis of the paragenetic sequence and diagenetic fluid evolution combined with the study of burial history, we determine the geological time and burial depth of diagenetic events.
Major goals of the CCSD, as outlined by Xu et al. (1998), include (1) to reveal the crustal structure of convergent plate boundaries, (2) to provide constraints on crust-mantle interactions and mantle behavior during deep subduction of continental crust, and (3) to investigate fluid evolution during UHP metamorphism.
The third-order differential equations occur in a variety of problems of applied sciences such as conservation laws, nano boundary layer fluid, evolution of physical phenomena in fluctuating environments, etc. Therefore the present study will provide a platform for solving these problems by means of analytic/numerical techniques.
So, although the parents of Gen Z were clearly a focus at CES 2017, there were a handful of startups and technology reveals specifically focused on the things Gen Z cares about, like immersion, fluid evolution, safety, and togetherness.
Hoffman also spoke highly of it, stating "[It] contains only as many discernible musical ideas as your average five- to seven-minute techno track but its luxurious length lets those ideas stretch out gloriously allowing a slow, fluid evolution that gestures towards a cosmic infinity".
In this case, the adiabatic index for both the polytropic initial data EOS and the ideal-fluid evolution EOS is (Gamma=1.4) and the right (R) and left (L) initial states are begin{aligned} &(rho_{R},v_{R},p_{R})=(0.125,0,0.1), &(rho_{L},v_{L},p_{L})=(1,0,1).
The fluid dynamical evolution ingredient serves to evolve the compressible fluid flows on a fixed nonuniform triangular mesh with the direct Eulerian GRP solver.
Besides the generation of meshes, the main process of this combination consists of two ingredients: Fluid dynamical evolution and mesh redistribution.
As the coupled fluid structure problem involves a huge number of degrees of freedom to account for the tube displacements and the fluid pressure evolutions, classical coupled method cannot be applied for industrial studies.
Fluid-pressure evolution within a heterogeneous volcanic edifice is extremely complex, and depends on hydraulic (permeability and porosity) and thermal properties of the rock (Reid [2004]; Fournier and Chardot [2012]).
