Atmospheric Sciences 340
Professor R. A. Houze
Updated: 21 January 2013*#



Instructor Text

Class Calendar

Problem Sets
Tests Current weather

Cloud Atlas

Skew T

 
Syllabus


 
Topics
Reading
Part I: Basic Thermodynamics
Thermodynamics terms and conditions
Boyle's and Charles' Laws--Ideal Gas Law
Molecular weight
 Wallace and Hobbs pp 63-66
First Law
Joule's Law
Heat Capacity
WH 72-75
Equipartition of energy
Pressure-volume diagram for an ideal gas
Isothermal and adiabatic processes
WH 75-77
Cyclical and reversible processes
Carnot cycle
WH 93-95
Second Law
Carnot's Theorems
Entropy
WH 95-97, 100-101
Heat Pumps and Refrigerators
Clausius Clapeyron equation
Partial Pressure
Dalton's Law
WH 66, 97-99
Part II: Atmospheric Thermodynamics
Composition of dry air.
Apparent molecular weight
Ideal gas law for dry air
Hydrostatic Equation
Geopotential and geopotential height
301 Thermodynamics Notes
WH
67-69
Hypsometric equation
Scale height
Thickness
WH 69-71
Reduction of pressure to sea level
Concept of an air parcel
First law for dry air
Dry static energy
Dry adiabatic lapse rate
WH 72, 76-77
Static stability of dry air
Inversions
Gravity waves
WH 88-91
Potential temperature
WH 77-78
Atmospheric thermodynamic diagrams
WH 78-79
Measures of water vapor in air
Ideal gas equation for pure water vapor and for moist air
Virtual temperature
Hypsometric equation for moist air
WH 80
Saturation vapor pressure and saturation mixing ratio
Relative humidity, dew point, and lifting condensation level (LCL)
Moist adiababatic vs pseudoadiabatic processes
First law for saturated parcel displacements
WH 80-85
Moist adiabatic lapse rate
Adiabatic liquid water content
Equivalent potential temperature
WH 85-86
Wet bulb temperature
Normand's rule
Wet-bulb potential temperature
WH 83-84, 86-87
Conditional and potential instability
Level of free convection (LFC)
Convective available potential energy (CAPE)
Convective inhibition (CIN)
WH 88-93, 344-347
Part III: Cloud Physics
Cloud nomenclature
Cloud formation processes
301 Cloud Physics Notes
Homogenous nucleation of cloud droplets
Kelvin's equation
WH 209-212
Heterogeneous nucleation of cloud droplets
Koehler curves
CN and CNN
WH 212-215
Growth of cloud droplets by condensation
WH 221-224
Growth of cloud drops to raindrops by coalescence
WH 224-230
Ice particle nucleation
Ice enhancement
WH 223-228
Growth of ice particles by vapor deposition
Ice particle habits
WH 228-241
Riming and aggregation
WH 241-245
Cloud electrification and lightning
WH 252-259


*Note: Every effort will be made to observe the schedule indicated by this syllabus, but the schedule is not guaranteed, and the student is advised to attend class and check the syllabus regularly for updates.
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