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Fall 2005 Courses (Last changes posted 8/11/2005)

Course Number

Section Number

CRN (Course Request Number)

Course title & credits

Days and Times

Building & Room

Instructor

Dates of Class

ATM 401/601

F01

73412 or 73413

Introduction to Atmospheric Sciences (3CR)

T-Th 5:20P-6:50P

IARC 407

Mölders

Full Term

ATM 613

F01

76151

Atmospheric Radiation (3CR)

T-Th 11:30P-01:00P

NCSI 207

Collins

Full Term

ATM 688

F01

76149

Atmospheric Science Informal Seminar (1CR)

W 01:30P-03:00P

IARC 401

Mölders

Semester Schedule here

Full Term

ATM 693

F01

 76150

Polar Climatology: Magnetic Fields in Nature
(1-3CR)

TR 3:40-5:00P

Geophysical Institute, Elvey Auditorium

Untersteiner

Merrill

LectureTitles

09/08-10/04

ATM 656

F01

78819

Climate and Climate Change (3CR)

T-Th 2:00A-3:30A

new time

IARC 407

new room!

Bhatt

Class Web Page

Full Term

ATM 693

PF01

77745

Climate Group Journal Club (1CR)

F 3:30P-4:30P

IARC 319

Polyakov

Class Web Page

Full Term

ATM 698

F01

73418

Research Credits (1-12)

NA

NA

Mölders

Full Term

ATM 699

F01

73419

Thesis Credits (1-12)

NA

NA

Mölders

Full Term

ATM 401/601 (3 credits) INTRODUCTION TO ATMOSPHERIC SCIENCE
cross-listed with CHEM601
Instructor: Prof. N Mölders

Tuesdays and Thursdays time and location see above

Introduction to atmospheric science includes the thermodynamics and dynamics of properties of constituent gases, energy and mass conservation in the atmosphere, internal energy and entropy in dry and moist processes (cloud physics and cloud microphysics), water vapor in the atmosphere, static and conditional stability, non-internal equations of motion, hydrostatics, geostropy, and general circulation. Chemistry discussions includes thermodynamic equilibrium and kinetic processes in the atmosphere, role of photolysis and gas phase oxidation processes, heterogeneous and aqueous chemistry, origin of the ozone, layer, fundamentals of biogeochemical cycles (e.g., CO2, H2O, nitrogen, etc.). Radiation discussion includes solar and terrestrial radiation, major absorbers, radiation balance, radiative equilibrium, radiative-convective equilibrium, basics of molecular, aerosol, and cloud adsorption and scattering. Interactions of the global energy, water, and trace gas cycle are discussed.

This class is mandatory for all atmospheric science students (master and Ph.D.) as it provides the fundamentals for the other mandatory classes of the atmospheric science program.

 Prerequisite: graduate standing, fundamentals of calculus, basics in physics, chemistry or another related physical science. Students attending at the graduate level should be able to program in FORTRAN, C or another programming language, and apply plot software (e.g., EXCEL, idl, etc.).

For more information contact Prof. Mölders

ATM 613/F413 (3 credits) ATMOSPHERIC RADIATION
Instructor: Prof. Richard Collins

Tuesdays and Thursdays, 11:30-1:00 p.m. NCSI 204
Atmospheric radiation including the fundamentals of blackbody radiation theory and radiative properties of atmospheric constituents. Discussion of gaseous absorption including line absorption, broadening effects and radiative transfer. Includes scattering, radiative properties of clouds, and radiation climatology.

Interested students from Science and Engineering are welcome. The class will follow the textbook of Liou with reference to the research material and textbook by Petty. Grades will be based on quizzes, homework, exams and a term paper/project chosen by the student.
Required Text:
Liou, K. N., An Introduction to Atmospheric Radiation, 2nd Edition, Academic Press, San Diego, 2002.
Recommended Text:
Petty, G. W., A First Course in Atmospheric Radiation, Sundog publishing, Madison, 2004.

First Class meets September 1, 2005 11:30 am @ NSCI 207.
Final location and times will be discussed at first class. If you cannot make the first class please contact instructor.

For more information contact Prof. Collins

ATM 656 (3 credits) CLIMATE AND CLIMATE CHANGE
Instructor: Prof. Uma Bhatt

Tuesdays and Thursdays, Time and location see above.

The climate of planet Earth and its changes with time. Processes studied include: radiative fluxes, greenhouse effects, energy budget, hydrological cycle, the atmospheric composition and climatic zones. We will explore physical and chemical reasons for climatic change.

Pre-Requisite: ATM601 or permission of instructor, graduate standing in physical sciences

For more information contact: Prof. Bhatt or visit course web page, here.

ATM 688(1 credits) Atmospheric Science Informal Seminar

Instructor: Prof. Nicole Mölders

Wednesdays, 1:30-3:00 p.m. IARC 401

The Atmospheric Science Informal Seminar is a seminar series wherein ongoing research in Atmospheric Sciences is presented by the scientists. This seminar is the opportunity to get to know about newest research results, ideas and direction long before they are published in peer-reviewed journals. Presentations cover the broad range of Atmospheric Sciences and the links to neighbored sciences as they are required to answer questions on global variability, climate change, and assessment studies.


The full seminar schedule can be found at www.gi.alaska.edu/~molders/zeitplan.htm

ATM 693 Special Topics in Polar Climatology (1-3 Credits)
Cross listed with GEOS 693.

Magnetic Fields in Nature
Instructor: Prof. Merrill
Dept of Geophysics, University of Washington


The series will consist of 8 one-hour lectures followed by 1/2 hour discussions:

Tuesdays and Thursdays, 3:40 p.m. at the UAF GI Elvey Auditorium
First lecture 8 September, last lecture 4 October

Lecture Titles
 
Lecture 1: The present magnetic field: a historical perspective.
                Compasses, navigation and Gauss.

Lecture 2:  The magnetic field record in rocks: is it reliable?
                 The debate on Earths intensity variation.

Lecture 3:  Reversals of Earths magnetic field.
                 Reversals, mega states and other matters.

Lecture 4:  Paleomagnetism and geology.
                  Recent stimulating and controversial research.

Lecture 5:  The origin of Earths magnetic field.
                 Although a dynamo explanation is widely accepted, there is no realistic dynamo model     

Lecture 6:  Dynamo theory, paleomagnetism, and Earths deep interior. 

                   Examples of synthesis.

Lecture 7:  Magnetic fields of planets and moons.
                   New insights and surprises.

Lecture 8:  Biology and magnetic fields. Animal navigation and related subjects.

 All graduate students, faculty, and staff are welcome to attend. Graduate students may register for 1 or 3 credits. The latter requires a brief term paper or project, to be arranged with the instructor.

Professor Merrill

Processor Merrill received his Ph.D. in geophysics at the University of California at Berkeley in 1967 and joined the University of Washington faculty in the same year. Currently he is a Professor in Earth and Space Sciences He is a past president of the Geomagnetism and Paleomagnetism Section of the American geophysical Union (AGU), a fellow of the AGU and he received the John Adam Fleming Medal of the AGU in 2002.

   This course can be taken for 1-3 credits as ATM 693 Polar Climatology CRN: 76150. For details on the course please contact Dr. Untersteiner  (n-u@runbox.com).


ATM 693 (1 Credit) CLIMATE JOURNAL CLUB

Instructor: Dr. Igor Polyakov

Friday, 3:30-4:30 p.m. IARC 319

The "Climate Group" has evolved from an informal meeting for researchers, Ph.D and Masters students to be held at IARC.

This semester there is a theme of 'Natural Cycles in the Earth System'. The course will begin with formal lectures from UAF faculty on various topics aimed at the level of students. These topics covered in the formal lectures will include: Overview of Climate time scales, The Diurnal cycle, Intraseasonal scales, Interannual, Decadal, Multi-decadal and Milankovich scales. This will be followed by more specific lectures on topics such as turbulence, polar vortex, ENSO, and the seasonal terrestrial cycle. The final weeks are reserved for student presentations on topics decided upon in consultation with the instructor.

Students are expected to attend, participate in the discussions, and present one lecture. The goal of this semester is for the students to gain an appreciation of role of temporal and spatial scales in climate variability and change.

Pre-Requisite: Graduate standing

For more information contact Dr. Polyakov (474-2686)
Class Web Page, here .
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