| Atmospheric Sciences 340 Professor R. A. Houze
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| Instructor | Text |
Problem
Sets |
Tests | Current weather | Skew
T |
| Syllabus |
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| Topics |
Reading |
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| Part
I: Basic Thermodynamics Thermodynamics terms and conditions Boyle's and Charles' Laws--Ideal Gas Law Molecular weight |
Wallace and Hobbs pp 63-66 |
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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 |
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| Second Law Carnot's Theorems Entropy |
WH 95-97, 100-101 Heat Pumps and Refrigerators |
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| Clausius Clapeyron equation Partial Pressure Dalton's Law |
WH 66, 97-99 |
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| 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 |
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| 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 |
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| Static stability of dry air Inversions Gravity waves |
WH 88-91 |
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| Potential temperature |
WH 77-78 |
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|---|---|---|---|
| Atmospheric
thermodynamic diagrams |
WH 78-79 |
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| 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 |
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| 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 |
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| Moist
adiabatic lapse rate Adiabatic liquid water content Equivalent potential temperature |
WH 85-86 |
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| Wet
bulb temperature Normand's rule Wet-bulb potential temperature |
WH
83-84, 86-87 |
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| Conditional
and potential instability Level of free convection (LFC) Convective available potential energy (CAPE) Convective inhibition (CIN) |
WH
88-93, 344-347 |
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| Part III: Cloud Physics Cloud nomenclature Cloud formation processes |
301 Cloud Physics Notes | ||
| Homogenous nucleation of cloud
droplets Kelvin's equation |
WH 209-212 |
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| Heterogeneous nucleation
of cloud droplets Koehler curves CN and CNN |
WH 212-215 |
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| Growth of cloud droplets by
condensation |
WH 221-224 |
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| Growth of cloud drops to raindrops by
coalescence |
WH 224-230 |
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| Ice particle nucleation Ice enhancement |
WH 223-228 |
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| Growth of ice particles by vapor
deposition Ice particle habits |
WH 228-241 |
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| Riming and aggregation |
WH 241-245 |
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| Cloud electrification and
lightning |
WH 252-259 |
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| *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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