Since its discovery in early 1900, turbulence has been an interesting and complex area of study. Written by international experts, Air Pollution and TurbulenceModeling and Applications presents advanced techniques for modeling turbulence, with a special focus on air pollution applications, including pollutant dispersion and inverse problems. Air Pollution and Turbulence's foreword was written by specialists in the field, including the Professor Sergej Zilitinkevich. Offering innovative atmospheric mathematical modeling methods, which can also be applied to other disciplines, Air Pollution and Turbulence Modeling and Applications includes: discussions on the effects of soot and diesel particulates on building surfaces and human health; observational studies of convective Atmospheric Boundary Layer (ABL) over pastures and forests in Amazonia; theoretical studies of turbulence and turbulent transport modeling of contaminants during the decaying of a ABL convective; the parameterization of convective turbulence and clouds in atmospheric models based on the combination of the eddy-diffusivity and mass-flux approaches; and, analytical solutions to the advection-diffusion equation and analytical models for air pollution, including those for low wind conditions.
Air Pollution and Turbulence: Modeling and Applications also includes: analytical solutions to the advection-diffusion equation using the Generalized Integral Laplace Transform Technique (GILTT) and the decomposition method; Lagrangian stochastic dispersion models with applications for airborne dispersion in the ABL Atmospheric dispersion with Large Eddy Simulation (LES) using the Lagrangian and Eulerian approaches; modeling of photochemical air pollution for better air quality management; and, analysis of the transport of a trace gas (CO2) at the global scale and overviews of the inverse-problem techniques for deducing emissions from known concentrations.
Air Pollution and Turbulence: Modeling and Applications provides a solid theoretical understanding of turbulence and includes cases studies that illustrate subjects related to environmental sciences and environmental modeling. It reflects and summarizes recent developments in key areas of modeling atmospheric turbulence and air pollution. It pulls together information on techniques and methods used on turbulence, air pollution, and applications. While these topics are often covered separately, Air Pollution and Turbulence's combined coverage of all three areas sets it apart.
Deposition, Transformation, and Remobilization of Soot and Diesel Particulates on Building Surfaces, P. Brimblecombe and C.M. Grossi
Atmospheric Boundary Layer: Concepts and Measurements, G. Fisch
Turbulence and Dispersion of Contaminants in the Planetary Boundary Layer, G.A. Degrazia, A. Gledson Oliveira Goulart, and D.R. Roberti
Parameterization of Convective Boundary Layer Turbulence and Clouds in Atmospheric Models, P.M.M. Soares, J. Teixeira, and P.M.A. Miranda
Mathematical Air Pollution Models: Eulerian Models, T. Tirabassi
Analytical Models for the Dispersion of Pollutants in Low Wind Conditions, P. Kumar and M. Sharan
On the GILTT Formulation for Pollutant Dispersion Simulation in the Atmospheric Boundary Layer, D.M. Moreira, M. Túllio M. B. de Vilhena, and D. Buske
An Outline of Lagrangian Stochastic Dispersion Models, D. Anfossi and S.T. Castelli
Atmospheric Dispersion with a Large-Eddy Simulation: Eulerian and Lagrangian Perspectives, U. Rizza, G. Gioia, G. Lacorata, C. Mangia, and G.P. Marra
Photochemical Air Pollution Modeling: Toward Better Air Quality Management, C. Borrego, A.I. Miranda, and J. Ferreira
Inversion of Atmospheric CO2 Concentrations, I.G. Enting
Davidson Moreira is an Adjunct Professor at the Federal University of Pampa in Brazil.