Week 1: Climate trends (earth observations), components of the climate systems (atmosphere, oceans, cryosphere, land surface)
Week 2: Radiate balance, a simple greenhouse model of earth, radiative forcings, radiative-convective framework
Week 3: Climate sensitivity, climate feedback: ice-albedo, water vapor, clouds, lapse rate
Week 4: Hydrological cycle, carbon cycle and reservoirs, Non-CO2 greenhouse gases and associated cycles
Week 5: Introduction to types of climate models (energy balance, intermediate complexity, general circulation). Introduction to earlier energy balance climate models considering only atmosphere (using the scientific papers, e.g. by Budyko (1969) The effect of solar radiation variations on the climate of the earth Tellus Vol. 5; Sellers (1969) A global climate model based on the energy balance of the earth-atmosphere system J. Applied Meteorology Vol. 8)
Week 6: Oceans and their role in regulating the climate. Early atmosphere-ocean coupled models. (e.g. Wigley and Schlesinger (1985) Analytical solution for the effect of increasing CO2 on global mean temperature Nature Vol. 315; Harvey and Schneider (1985) Transient climate response to external forcing on 100 – 104 year time scales Part - 1 J. Geophysical Research Vol. 90))
Week 7: Describing transport of energy and matter, parameterization
Week 8: Introduction to numerical methods used in climate models, and presentation of primer for complex models
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