The design was undertaken using Simulation-Driven Design whereby the commercial Computational Fluid Dynamics software ANSYS Fluent was utilized.
In the present work, a flexible hybrid CFD model is constructed for parallel flow condensers to compute their refrigerant mal-distributions, where the DEFINED Macros of ANSYS Fluent are utilized to embed the one-dimensional finite element analysis of the heat transfer and flow resistance of refrigerant flowing through flat tubes.
A computational fluid dynamics tool, namely, ANSYS-FLUENT is utilized for evaluation purpose.
For this purpose, we had utilized Fluent 6.2 to predict the CO2 capture efficiency for different operation conditions.
The mathematical model is then solved numerically utilizing finite-volume-based CFD software Fluent 6.3.26, the User-Defined Function written in C language is used extensively to capture the nanofluid properties.
Correlations for Nusselt number and friction factor are developed using ANSYS Fluent and are subsequently utilized in one dimensional (1D) thermal modeling of the heat exchanger.
Numerical simulations were performed using ANSYS Fluent utilizing extrapolation techniques to estimate the pressure drop as a function of flow rate and symmetry methods to investigate heat transfer.
The research method employs the numerical algorithm of computational fluid dynamics (CFD – FLUENT) to simulate the steady-state wind field in a typical Hong Kong urban setting and investigate pollutant dispersion inside the street canyon utilizing a pollutant transport model.
To study the diffusion rules of coal dust, fluent discrete phase model was utilized in the numerical simulation, as the coal dust was thrown down at a horizontal velocity of 2.5 m/s.
Regional specialists fluent in 40 languages collectively utilize taxonomy-based keyword searching and Bayesian tools to identify relevant articles from collected articles.
Fluent, a computational fluid dynamics (CFD) package, is utilized to perform the three-dimensional (3-D), unsteady, and double precision simulations.
