Course Content (Syllabus)
Thermodynamic systems. Thermodynamic laws and processes for dry and moist atmospheric air. Adiabatic and non-adiabatic changes in the atmosphere. Clausius-Clapeyron equation. Adiabatic lapse rate for dry, unsaturated moist, and saturated moist air masses. Poisson’s equation, potential temperature, entropy, and enthalpy of atmospheric air. Thermodynamic diagrams, Tephigrams. Conditions of static equilibrium in the atmosphere. Air parcel method. Empirical instability indices. Orbital movements of the sun, Solar spectrum, Electromagnetic waves and fields, Radiometric quantities, Thermal radiation, Effective temperature of the planet, Greenhouse effect, Brightness temperature, Radiation laws, Phenomena of radiation-matter interactions in the atmosphere (reflection, refraction, scattering), Simple radiation propagation model, Applications. Condensation and saturation processes. Cloud condensation nuclei, ice nuclei, and atmospheric aerosols. Clouds of continental and maritime origin. Homogeneous and heterogeneous nucleation. Köhler curve. Rain formation through collision and coalescence (warm rain). Supercooling state. Ice crystal development and rain formation (cold rain process). Collision and aggregation of ice crystals (accretion). Mechanisms of secondary ice nucleus production. Forms of ice crystals.
Keywords
atmospheric physcis, atmospheric thermodynamics, static equilibrium in the atmosphere, solar and terrestrial radiation, radiation-matter interactions, radiation propagation, greenhouse effect, saturation and condensation, rain formation
Additional bibliography for study
1)Fundamentals of Weather and Climate, Robin McIlveen, Chapman and Hall, London, 1992.
2) A first course in Atmospheric Thermodynamics, Grant W. Petty, Sundog Publishing, Madison Wisconsin, 2008.
3) A first course in Atmospheric Radiation, Gant Petty ISBN-13: 978-0972903318