“This is a well written, absorbing, and highly informative book, especially for readers interested in the mathematical theory of climate and the numerical methods in atmospheric physics. It is of great value to researchers in applied mathematics, environmental fluid mechanics, and geophysics, particularly in atmospheric sciences.” (Andrzej Icha, Pure and Applied Geophysics, Vol. 175, 2018)

• Part I: Numerical Methods for Meteorological Problems: 1 On a Conservative Finite-Difference Method for 1D Shallow Water Flows Based on Regularized Equations: A. Zlotnik and V. Gavrilin.- 2 Discretization in Numerical Weather Prediction: A Modular Approach to Investigate Spectral and Local SISL Methods: S. Caluwaerts et al.- 3 Turbulence Modeling Using Fractional Derivatives: B. Szekeres.- 4 A Parallel Numerical Solution Approach for Nonlinear Parabolic Systems Arising in Air Pollution Transport Problems: J. Karátson and B. Kovács.- Part II: Air Quality Modelling: 5 Eulerian and Largangian Approaches for Modelling of Air Quality: A. Havasi et al.- 6 Hydrodynamic Modeling of Industrial Pollutants Spreading in Atmosphere: V.A. Prusow and A.Y. Doroshenko.- 7 Coordinate Transformation Approach for Numerical Solution of Environmental Problems: I. Dimov et al.- 8 Impact of Climatic Changes on Pollution Levels: Z. Zlatev et al.- Part III: Meteorological Data Assimilation and Probabilistic Forecasting: 9 An Invitation to Meteorological Data Assimilation: A. Bodó and P. Csomós.- 10 Analysis of the Data Assimilation Methods from the Mathematical Point of View: T. Szentimrey.-11 Ensemble Methods in Meteorological Modelling by M. Szücs et al.- 12 Quantifying Sources of Uncertainty in Precipitation and Temperature Projections over Different Parts of Europe: P. Szabó and G. Szépszò.

“This is a well written, absorbing, and highly informative book, especially for readers interested in the mathematical theory of climate and the numerical methods in atmospheric physics. It is of great value to researchers in applied mathematics, environmental fluid mechanics, and geophysics, particularly in atmospheric sciences.” (Andrzej Icha, Pure and Applied Geophysics, Vol. 175, 2018)

• Part I: Numerical Methods for Meteorological Problems: 1 On a Conservative Finite-Difference Method for 1D Shallow Water Flows Based on Regularized Equations: A. Zlotnik and V. Gavrilin.- 2 Discretization in Numerical Weather Prediction: A Modular Approach to Investigate Spectral and Local SISL Methods: S. Caluwaerts et al.- 3 Turbulence Modeling Using Fractional Derivatives: B. Szekeres.- 4 A Parallel Numerical Solution Approach for Nonlinear Parabolic Systems Arising in Air Pollution Transport Problems: J. Karátson and B. Kovács.- Part II: Air Quality Modelling: 5 Eulerian and Largangian Approaches for Modelling of Air Quality: A. Havasi et al.- 6 Hydrodynamic Modeling of Industrial Pollutants Spreading in Atmosphere: V.A. Prusow and A.Y. Doroshenko.- 7 Coordinate Transformation Approach for Numerical Solution of Environmental Problems: I. Dimov et al.- 8 Impact of Climatic Changes on Pollution Levels: Z. Zlatev et al.- Part III: Meteorological Data Assimilation and Probabilistic Forecasting: 9 An Invitation to Meteorological Data Assimilation: A. Bodó and P. Csomós.- 10 Analysis of the Data Assimilation Methods from the Mathematical Point of View: T. Szentimrey.-11 Ensemble Methods in Meteorological Modelling by M. Szücs et al.- 12 Quantifying Sources of Uncertainty in Precipitation and Temperature Projections over Different Parts of Europe: P. Szabó and G. Szépszò.

“This is a well written, absorbing, and highly informative book, especially for readers interested in the mathematical theory of climate and the numerical methods in atmospheric physics. It is of great value to researchers in applied mathematics, environmental fluid mechanics, and geophysics, particularly in atmospheric sciences.” (Andrzej Icha, Pure and Applied Geophysics, Vol. 175, 2018)

• Part I: Numerical Methods for Meteorological Problems: 1 On a Conservative Finite-Difference Method for 1D Shallow Water Flows Based on Regularized Equations: A. Zlotnik and V. Gavrilin.- 2 Discretization in Numerical Weather Prediction: A Modular Approach to Investigate Spectral and Local SISL Methods: S. Caluwaerts et al.- 3 Turbulence Modeling Using Fractional Derivatives: B. Szekeres.- 4 A Parallel Numerical Solution Approach for Nonlinear Parabolic Systems Arising in Air Pollution Transport Problems: J. Karátson and B. Kovács.- Part II: Air Quality Modelling: 5 Eulerian and Largangian Approaches for Modelling of Air Quality: A. Havasi et al.- 6 Hydrodynamic Modeling of Industrial Pollutants Spreading in Atmosphere: V.A. Prusow and A.Y. Doroshenko.- 7 Coordinate Transformation Approach for Numerical Solution of Environmental Problems: I. Dimov et al.- 8 Impact of Climatic Changes on Pollution Levels: Z. Zlatev et al.- Part III: Meteorological Data Assimilation and Probabilistic Forecasting: 9 An Invitation to Meteorological Data Assimilation: A. Bodó and P. Csomós.- 10 Analysis of the Data Assimilation Methods from the Mathematical Point of View: T. Szentimrey.-11 Ensemble Methods in Meteorological Modelling by M. Szücs et al.- 12 Quantifying Sources of Uncertainty in Precipitation and Temperature Projections over Different Parts of Europe: P. Szabó and G. Szépszò.