2011
DOI: 10.5572/ajae.2011.5.1.001
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CALPUFF and AERMOD Dispersion Models for Estimating Odor Emissions from Industrial Complex Area Sources

Abstract: This study assesses the dispersion and emission rates of odor form industrial area source. CALPUFF and AERMOD Gaussian models were used for predicting downwind odor concentration and calculating odor emission rates. The studied region was Seobu industrial complex in Korea. Odor samples were collected five days over a year period in 2006. In-site meteorological data (wind direction and wind speed) were used to predict concentration. The BOOT statistical examination software was used to analyze the data. Compari… Show more

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Cited by 21 publications
(15 citation statements)
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“…Where C is the ground-level concentration (g m -3 ), Q is the pollutant mass (g) in the puff, x is the standard deviation (m) of the Gaussian distribution in the along-wind direction, y is the standard deviation (m) of the Gaussian distribution in the cross-wind direction, z is the standard deviation (m) of the Gaussian distribution in the vertical direction, da is the distance (m) from the puff center to the receptor in the along-wind direction, dc is the distance (m) from the puff center to the receptor in the cross-wind direction, g is the vertical term (m) of the Gaussian equation, H is the effective height (m) above ground of the puff center, and h is the mixed-layer height (m) (Jeong, 2011). The input data used for the dispersion models are summarized in Table 1.…”
Section: Modeling Methodologymentioning
confidence: 99%
“…Where C is the ground-level concentration (g m -3 ), Q is the pollutant mass (g) in the puff, x is the standard deviation (m) of the Gaussian distribution in the along-wind direction, y is the standard deviation (m) of the Gaussian distribution in the cross-wind direction, z is the standard deviation (m) of the Gaussian distribution in the vertical direction, da is the distance (m) from the puff center to the receptor in the along-wind direction, dc is the distance (m) from the puff center to the receptor in the cross-wind direction, g is the vertical term (m) of the Gaussian equation, H is the effective height (m) above ground of the puff center, and h is the mixed-layer height (m) (Jeong, 2011). The input data used for the dispersion models are summarized in Table 1.…”
Section: Modeling Methodologymentioning
confidence: 99%
“…Jeong [14] used the AERMOD model to predict odor concentration (regardless of the type of odorous gas, measured based on odor unit). The values of FB, MG, NMSE, VG and FAC2 were equal to -0.019, 1.392, 0.499, 2.461, and 1.019, respectively.…”
Section: Isc Outputmentioning
confidence: 99%
“…Jeong [14] used an AERMOD model to predict odor concentration (regardless of the type of odorous gas, measured based on odor unit) around an industrial complex. Samples were collected at the site in 11 stations and during 5 d, and the meteorological data were measured on the site.…”
Section: Introductionmentioning
confidence: 99%
“…A CAREA simulation was performed to assess the spatial distribution of the concentration on the test site assuming each orchard as an emission source of pesticide as already discussed in the literature by Wittich et al [20] and others [80,81].…”
Section: Carea Simulation On the Test Sitementioning
confidence: 99%