1,229
Views
45
CrossRef citations to date
0
Altmetric
Original Articles

Principal Plume Dispersion Models: TVA Power Plants

, , , &
Pages 491-495 | Published online: 15 Mar 2012

Keep up to date with the latest research on this topic with citation updates for this article.

Read on this site (2)

Antonio Sciarretta. (2006) A lattice gas model with temperature and buoyancy effects to predict the concentration of pollutant gas released by power plants and traffic sources. Mathematical and Computer Modelling of Dynamical Systems 12:4, pages 313-327.
Read now
R. O. Beauchamp, James S. Bus, James A. Popp, Craig J. Boreiko, Dragana A. Andjelkovich & Philip Leber. (1984) A Critical Review of the Literature on Hydrogen Sulfide Toxicity. CRC Critical Reviews in Toxicology 13:1, pages 25-97.
Read now

Articles from other publishers (43)

Shanru Tian, Stuart N. Riddick, Younki Cho, Clay S. Bell, Daniel J. Zimmerle & Kathleen M. Smits. (2022) Investigating detection probability of mobile survey solutions for natural gas pipeline leaks under different atmospheric conditions. Environmental Pollution 312, pages 120027.
Crossref
C. Bhaskar & K. Lakshminarayanachari. (2021) Numerical model for primary and secondary air pollutants emitted from an area and point source in an urban area with chemical reaction and removal mechanisms. Materials Today: Proceedings 37, pages 2961-2967.
Crossref
Vanita R. Raikar, C. Pandurangappa & K. Lakshminarayanachari. (2020) Point source numerical model of primary and secondary pollutants with mesoscale wind and wet deposition. Materials Today: Proceedings.
Crossref
Deliwe Ngwezi, Lisa Hornberger, Jesus Serrano-Lomelin, Charlene Nielsen, Deborah Fruitman & Alvaro Osornio-Vargas. (2018) Industrial Developmental Toxicants and Congenital Heart Disease in Urban and Rural Alberta, Canada. Challenges 9:2, pages 26.
Crossref
Daniele Contini, Daniela Cesari, Marianna Conte & Antonio Donateo. (2016) Application of PMF and CMB receptor models for the evaluation of the contribution of a large coal-fired power plant to PM10 concentrations. Science of The Total Environment 560-561, pages 131-140.
Crossref
A.K. Thorpe, C. Frankenberg, A.D. Aubrey, D.A. Roberts, A.A. Nottrott, T.A. Rahn, J.A. Sauer, M.K. Dubey, K.R. Costigan, C. Arata, A.M. Steffke, S. Hills, C. Haselwimmer, D. Charlesworth, C.C. Funk, R.O. Green, S.R. Lundeen, J.W. Boardman, M.L. Eastwood, C.M. Sarture, S.H. Nolte, I.B. Mccubbin, D.R. Thompson & J.P. McFadden. (2016) Mapping methane concentrations from a controlled release experiment using the next generation airborne visible/infrared imaging spectrometer (AVIRIS-NG). Remote Sensing of Environment 179, pages 104-115.
Crossref
O. Connan, P. Laguionie, D. Maro, D. Hébert, P.G. Mestayer, F. Rodriguez, V. Rodrigues & J.M.Rosant. (2015) Vertical and horizontal concentration profiles from a tracer experiment in a heterogeneous urban area. Atmospheric Research 154, pages 126-137.
Crossref
O. Connan, L. Solier, D. Hébert, D. Maro, M. Lamotte, C. Voiseux, P. Laguionie, O. Cazimajou, S. Le Cavelier, C. Godinot, M. Morillon, L. Thomas & S. Percot. (2014) Near-field krypton-85 measurements in stable meteorological conditions around the AREVA NC La Hague reprocessing plant: estimation of atmospheric transfer coefficients. Journal of Environmental Radioactivity 137, pages 142-149.
Crossref
M. Ebrahimi & A. Jahangirian. (2012) New analytical formulations for calculation of dispersion parameters of Gaussian model using parallel CFD. Environmental Fluid Mechanics 13:2, pages 125-144.
Crossref
. 2012. Lees' Loss Prevention in the Process Industries. Lees' Loss Prevention in the Process Industries 3129 3580 .
O. Connan, C. Leroy, F. Derkx, D. Maro, D. Hébert, P. Roupsard & M. Rozet. (2011) Atmospheric dispersion of an elevated release in a rural environment: Comparison between field SF6 tracer measurements and computations of Briggs and ADMS models. Atmospheric Environment 45:39, pages 7174-7183.
Crossref
C. Leroy, D. Maro, D. H?bert, L. Solier, M. Rozet, S. Le Cavelier & O. Connan. (2010) A study of the atmospheric dispersion of a high release of krypton-85 above a complex coastal terrain, comparison with the predictions of Gaussian models (Briggs, Doury, ADMS4). Journal of Environmental Radioactivity 101:11, pages 937-944.
Crossref
Jos? Francisco De Oliveira J?nior, Luiz Cl?udio Gomes Pimentel & Luiz Landau. (2010) Crit?rios de estabilidade atmosf?rica para a regi?o da Central Nuclear Almirante ?lvaro Alberto, Angra dos Reis - RJ. Revista Brasileira de Meteorologia 25:2, pages 270-285.
Crossref
E. Demael & B. Carissimo. (2008) Comparative Evaluation of an Eulerian CFD and Gaussian Plume Models Based on Prairie Grass Dispersion Experiment. Journal of Applied Meteorology and Climatology 47:3, pages 888-900.
Crossref
. 2005. Lees' Loss Prevention in the Process Industries. Lees' Loss Prevention in the Process Industries 51 100 .
Zhou Li, Xu Xiangde, Ding Guoan, Zhou Mingyu & Cheng Xinghong. (2005) Diurnal variations of air pollution and atmospheric boundary layer structure in Beijing during winter 2000/2001. Advances in Atmospheric Sciences 22:1, pages 126-132.
Crossref
S.S Raza, R Avila & J Cervantes. (2001) A 3-D Lagrangian stochastic model for the meso-scale atmospheric dispersion applications. Nuclear Engineering and Design 208:1, pages 15-28.
Crossref
S. P. Singal, B. S. Gera & Neeraj Saxena. 1997. Acoustic Remote Sensing Applications. Acoustic Remote Sensing Applications 325 384 .
B.N. Duncan, A.W. Stelson & C.S. Kiang. (1995) Estimated contribution of power plants to ambient nitrogen oxides measured in Atlanta, Georgia in August 1992. Atmospheric Environment 29:21, pages 3043-3054.
Crossref
M. Segal, R.A. Pielke, R.W. Arritt, M.D. Moran, C.-H. Yu & D. Henderson. (1988) Application of a mesoscale atmospheric dispersion modeling system to the estimation of SO2 concentrations from major elevated sources in Southern Florida. Atmospheric Environment (1967) 22:7, pages 1319-1334.
Crossref
Jay S. Jacobson & John M. McManus. (1985) Pattern of atmospheric sulphur dioxide occurrence: An important criterion in vegetation effects assessment. Atmospheric Environment (1967) 19:3, pages 501-506.
Crossref
Mordecay Segal, Ytzhaq Mahrer & Roger A. Pielke. (1982) A numerical model study of plume fumigation during nocturnal inversion break-up. Atmospheric Environment (1967) 16:3, pages 513-519.
Crossref
Erich Weber. 1982. Air Pollution. Air Pollution 101 128 .
Erich Weber. 1982. Air Pollution. Air Pollution 63 100 .
J.L. McElroy, J.A. Eckert & C.J. Hager. (1981) Airborne downlooking lidar measurements during state 78. Atmospheric Environment (1967) 15:10-11, pages 2223-2230.
Crossref
T.B. Smith. (1981) Some observations of pollutant transport associated with elevated plumes. Atmospheric Environment (1967) 15:10-11, pages 2197-2203.
Crossref
S. Sandroni, P. Bacci & D. Anfossi. (1981) Aircraft observations of plumes emitted from elevated sources. Atmospheric Environment (1967) 15:1, pages 95-100.
Crossref
Axel Schönbucher & Volker Scheller. (1981) Ausbreitung von Abgasfahnen. Chemie Ingenieur Technik 53:5, pages 320-334.
Crossref
P. K. Misra & A. C. McMillan. (1980) On the dispersion parameters of plumes from tall stacks in a shoreline environment. Boundary-Layer Meteorology 19:2, pages 175-185.
Crossref
Bryan R. Kerman. (1979) A similarity model for maximum ground-level concentration in a height-invariant, stably stratified atmospheric boundary layer. Boundary-Layer Meteorology 17:3, pages 297-313.
Crossref
M.N. Herman. (1979) Further comments on ?simple prediction formulae for maximum ground level concentrations from coning plumes?. Atmospheric Environment (1967) 13:2, pages 343-344.
Crossref
Kai-Ching Chu, Mohammad Jamshidi & Richard E. Levitan. (1978) Real-time urban power dispatch with ambient air quality constraints. Automatica 14:1, pages 19-30.
Crossref
D.A. Latimer & G.S. Samuelsen. (1978) Visual impact of plumes from power plants: A theoretical model. Atmospheric Environment (1967) 12:6-7, pages 1455-1465.
Crossref
D.P. Lalas & G.S. Karras. (1977) Simple prediction formulae for maximum ground level concentrations from coning plumes. Atmospheric Environment (1967) 11:11, pages 1117-1119.
Crossref
Kenneth E. Noll, Terry L. Miller, Jay E. Norco & R.K. Raufer. (1977) An objective air monitoring site selection methodology for large point sources. Atmospheric Environment (1967) 11:11, pages 1051-1059.
Crossref
Donald L. Ermak. (1977) An analytical model for air pollutant transport and deposition from a point source. Atmospheric Environment (1967) 11:3, pages 231-237.
Crossref
K.W. Ragland. (1976) Worst-case ambient air concentrations from point sources using the Gaussian Plume Model. Atmospheric Environment (1967) 10:5, pages 371-374.
Crossref
A. Longhetto. (2007) Atmospheric diffusion in upper levels of the planetary boundary layer. La Rivista Del Nuovo Cimento Series 2 5:4, pages 593-616.
Crossref
Kenneth W. Ragland & Robin L. Dennis. (1975) Point source atmospheric diffusion model with variable wind and diffusivity profiles. Atmospheric Environment (1967) 9:2, pages 175-189.
Crossref
R.L. Bohac, W.R. Derrick & J.B. Sosebee. (1974) Sensitivity of the Gaussian plume model. Atmospheric Environment (1967) 8:3, pages 291-293.
Crossref
T. L. Montgomery, J. M. Leavitt, T. L. Crawford & F. E. Gartrell. (2015) Controlling Ambient SO2. JOM 25:6, pages 35-41.
Crossref
Niels E. Busch. 1973. Environmental Engineering. Environmental Engineering 81 94 .
G.A. Briggs. (1972) Chimney plumes in neutral and stable surroundings. Atmospheric Environment (1967) 6:7, pages 507-510.
Crossref

Reprints and Corporate Permissions

Please note: Selecting permissions does not provide access to the full text of the article, please see our help page How do I view content?

To request a reprint or corporate permissions for this article, please click on the relevant link below:

Academic Permissions

Please note: Selecting permissions does not provide access to the full text of the article, please see our help page How do I view content?

Obtain permissions instantly via Rightslink by clicking on the button below:

If you are unable to obtain permissions via Rightslink, please complete and submit this Permissions form. For more information, please visit our Permissions help page.