THERMAL SCIENCE
International Scientific Journal
RESEARCH ON TERRAIN GRIDS GENERATION IN COMPUTATIONAL FLUID DYNAMICS SOFTWARE
ABSTRACT
Traditional research of environmental impact of natural draft cooling tower in nuclear power plant is based on diffusion model or tunnel experiment, and with the development of modern mainframe computers and turbulence models, it is possible to use CFD method to simulate plume drift. The CFD software, due to its powerful computing ability, can simulate and display the plume drift more accurately. This paper presents an effective way of generating terrain grids which can be used in StarCD, a CFD software. The SRTM terrain data is obtained from internet and IDW interpolation method is used in the co-ordinates translation process. A powerful program named GridInter is developed using Fortran90 to convert terrain data to StarCD vertex file, terrain grids generation process in StarCD including nuclear power plant building grids combination is also introduced, this model can be directly used in the numerical simulation of plume dispersion.
KEYWORDS
PAPER SUBMITTED: 2023-06-20
PAPER REVISED: 2023-07-15
PAPER ACCEPTED: 2023-08-18
PUBLISHED ONLINE: 2023-09-02
THERMAL SCIENCE YEAR
2023, VOLUME
27, ISSUE
Issue 5, PAGES [4321 - 4332]
- Chen, D., et al., Improved Gaussian Plume Model for Atmospheric Dispersion Considering Buoyancy and Gravitational Deposition: The Case of Multi-Form Tritium, Applied Rad. and Iso., 199 (2023), 110892
- Liu, C., et al., Gas Diffusion Model Based on an Improved Gaussian Plume Model for Inverse Calculations of the Source Strength, J. of Loss Prevention in the Process Industries, 75 (2022), 104677
- Martina, M., Castelli, S. T., Modelling the Potential Long-Range Dispersion of Atmospheric Microplastics Reaching a Remote Site, Atmospheric Environment, 312 (2023), 120044
- Mack, A., et al., Extension of the EFFECTS Dispersion Model for Buoyant Plume Rise Including Lift-Off, Process Safety and Environmental Protection, 176 (2023), pp. 747-762
- Plischka, H., et al., Comparison of Turbulent Inflow Conditions for Neutral Stratified Atmospheric Boundary Layer Flow, Journal of Wind Engineering and Industrial Aerodynamics, 230 (2022), 105145
- Pasquier, M., et al., A Lattice-Boltzmann-Based Modelling Chain for Traffic-Related Atmospheric Pollutant Dispersion at the Local Urban Scale, Building and Environment, 242 (2023), 110562
- Vidali, C., et al., Wind-Tunnel Experiments on Atmospheric Heavy Gas Dispersion: Metrological Aspects, Experimental Thermal and Fluid Science, 130 (2022), 110495
- Ji, J., et al., The Application of Measuring Atmospheric Properties in Overlap Factor Region Using Scanning Lidar, Results in Physics, 43 (2022), 106050
- Alrammah, I., et al., Atmospheric Dispersion Modeling and Radiological Environmental Impact Assessment for Normal Operation of a Proposed Pressurized Water Reactor in the Eastern Coast of Saudi Arabia, Progress in Nuclear Energy, 145 (2022), 104121
- Journal of the Air & Waste Management Association, 2002, 52: 313-323.
- Ichikawa, Y., Sada, K., An Evaluation Method of the Topographical Effects on Exhaust Gas Dispersion Using a Numerical Model, Komae Research Laboratory Report, No.T98010, Tokyo, Japan
- Bornoff, R. B., Mokhtarzadeh-Dehgha, M. R., A Numerical Study of Interacting Buoyant Cooling-Tower Plumes, Atmospheric Environment, 35 (2001), 3, pp. 589-598
- Tai, Y., et al., Multi-Particle Models of Molecular Diffusion for Lagrangian Simulation Coupled with LES for Passive Scalar Mixing in Compressible Turbulence, Computers & Fluids, 221 (2021), 104886
- Apolinario, G. B., et al., Instantons and Fluctuations in a Lagrangian Model of Turbulence, Physica A: Statistical Mechanics and its Applications, 514 (2019), Jan., pp. 741-757
- England, W. G., et al., Cooling Tower Plumes-Defined and Traced by Means of Computer Simulation Models, Proceedings, Cooling Tower Institute Annual Meeting, Houston, Tex., USA, 1973, pp. 41
- Bender, T. J., et al., A Study on the Effects of Wind on the Air Intake Flow Rate of a Cooling Tower: Part 2. Wind Wall Study, Journal of Wind Engineering and Industrial Aerodynamics, 64, (1996), 1, pp.61-72.
- Bender, D. J., et al., Numerical Study of Wind Flow Over a Cooling Tower, Journal of Wind Engineering and Industrial Aerodynamics, 46-47 (1993), Aug., pp. 657-664
- Tao, W. Q., Numerical Heat Transfer, Xi'an Jiaotong University Press, Xi'an, China, 2001
- Schneiders, L., et al., On the Accuracy of Lagrangian Point-Mass Models for Heavy Non-Spherical Particles in Isotropic Turbulence, Fuel, 201 (2017), Aug., pp. 2-14
- Husar, R. B., Falke, S. R., Uncertainty in the Spatial Interpolation of PM10 Monitoring Data in Southern California
- Robert, N. M., CFD Prediction of Cooling Tower Drift, Journal of Wind Engineering and Industrial Aerodynamics, 94 (2006), 6, pp. 463-490