ATM
S 533, Winter Quarter 2006
Atmospheric Radiation (Advanced)
Instructor:
Prof. Qiang Fu
308 Atmospheric Sciences Bldg., 685-2070
Meeting Times: 10:30-11:50 am, T TH, ATG 610
Grading: 40% assignments, 30% midterm, and 30% class
project report (or
final exam).
Office Hours: 1:00 - 2:00 pm, T TH
Prerequisites: Phys 225 or Atms 532 (or 501) or
permission of instructor
(no permission needed for our grads).
Reference books: An Introduction to Atmospheric Radiation
by K.N. Liou
A First Course in Atmospheric Radiation by G.W. Petty
Course Outline:
1. Introduction
Definitions and radiation quantities; Kirchhoff's law; Formulation of
the
general radiative transfer equation and its formal solution;
Radiative transfer equation in plane-parallel atmospheres with direct
solar
beam; Legendre polynomial expansion of scattering phase functions;
Gauss's formula.
2. Radiative Transfer
Basic
equations including azimuthally-averaged radiative transfer
equation; Two-stream solution; Eddington's solution; Application to
nonhomogeneous atmospheres; Delta-Adjustment and similarity principle;
Discrete ordinates method; Adding method; Monte-Carlo method; Some
advanced topics.
3. Optical Properties
Polarization of matters and classic theories; A closer look at the
refractive index; Optical properties of heterogeneous mixtures;
Reflection and transmission at a plane boundary; Some applications.
4. Single Scattering
Review of electromagnetic theory; Mie theory; Geometric optics; Light
scattering by non-spherical particles.
5. Applications in remote sensing and climate