UC Davis General Catalog, 2006-2008 - General Catalog - UC Davis
UC Davis General Catalog, 2006-2008 - General Catalog - UC Davis
UC Davis General Catalog, 2006-2008 - General Catalog - UC Davis
Create successful ePaper yourself
Turn your PDF publications into a flip-book with our unique Google optimized e-Paper software.
Hydrologic Sciences (A Graduate Group) 307<br />
Faculty<br />
William Casey, Ph.D., Professor (Chemistry)<br />
Randy Dahlgren, Ph.D., Professor<br />
(Land, Air, and Water Resources)<br />
Jeanie Darby, Ph.D., Professor<br />
(Civil and Environmental Engineering)<br />
Harrison Dunning, LL.B., Professor (School of Law)<br />
Graham Fogg, Ph.D., Professor<br />
(Land, Air, and Water Resources)<br />
Timothy Ginn, Ph.D., Professor<br />
(Civil and Environmental Engineering)<br />
Mark Grismer, Ph.D., Professor<br />
(Land, Air, and Water Resources)<br />
David Hinton, Professor<br />
(Anatomy, Physiology and Cell Biology)<br />
Britt Holmen, Assistant Researcher<br />
(Crocker Nuclear Laboratory)<br />
Jan Hopmans, Ph.D., Professor<br />
(Land, Air, and Water Resources)<br />
William Horwath, Ph.D., Professor<br />
(Land, Air, and Water Resources)<br />
Alan Jackman, Ph.D., Professor<br />
(Chemical Engineering and Materials Science)<br />
Michael Johnson, Ph.D., Director<br />
(Aquatic Ecosystem Analysis Laboratory)<br />
M. Levent Kavvas, Ph.D., Professor<br />
(Civil and Environmental Engineering)<br />
Bruce Kutter, Ph.D., Professor<br />
(Civil and Environmental Engineering)<br />
Bruce Larock, Ph.D., Professor<br />
(Civil and Environmental Engineering)<br />
Jay Lund, Ph.D., Professor<br />
(Civil and Environmental Engineering)<br />
Miguel Marino, Ph.D., Professor<br />
(Land, Air, and Water Resources)<br />
Jeffrey Mount, Ph.D., Professor (Geology)<br />
Alexandra Navrotsky, Ph.D., Professor<br />
(Land, Air, and Water Resources)<br />
Gregory Pasternack, Ph.D., Associate Professor<br />
(Land, Air, and Water Resources)<br />
Kyaw Tha Paw U, Ph.D., Professor<br />
(Land, Air, and Water Resources)<br />
Carlos Puente, Ph.D., Professor<br />
(Land, Air, and Water Resources)<br />
Eliska Rejmankova, Ph.D., Professor<br />
(Environmental Science and Policy)<br />
Paul Sabatier, Ph.D., Professor<br />
(Environmental Science and Policy)<br />
Geoffrey Schladow, Ph.D., Professor<br />
(Civil and Environmental Engineering)<br />
Kate Scow, Ph.D., Professor<br />
(Land, Air, and Water Resources)<br />
Susan Ustin, Ph.D., Professor<br />
Land, Air, and Water Resources)<br />
Wesley Wallender, Ph.D., Professor<br />
(Land, Air, and Water Resources)<br />
Bryan Weare, Ph.D., Professor<br />
(Land, Air, and Water Resources)<br />
Tom Young, Associate Professor<br />
(Civil and Environmental Engineering)<br />
Minghua Zhang, Ph.D., Associate Adjunct Professor<br />
(Land, Air, and Water Resources)<br />
Emeriti Faculty<br />
Charles Goldman, Ph.D., Professor Emeritus<br />
Theodore Hsiao, Ph.D., Professor Emeritus<br />
Dennis Rolston, Ph.D., Professor Emeritus<br />
Roger Shaw, Ph.D., Professor Emeritus<br />
Marlyn Shelton, Ph.D., Professor Emeritus<br />
Kenneth Tanji, Sc.D., Professor Emeritus<br />
Stephen Whitaker, Ph.D., Professor Emeritus<br />
Affiliated Faculty<br />
David Goldhamer, Ph.D., Irrigation Specialist<br />
(Land, Air, and Water Resources)<br />
Stephen Grattan, Ph.D., Water Relations Specialist<br />
(Land, Air, and Water Resources)<br />
Blaine Hanson, Ph.D., Irrigation Specialist<br />
(Land, Air, and Water Resources)<br />
Thomas Harter, Ph.D., Cooperative Extension<br />
Specialist (Land, Air, and Water Resources)<br />
Terry Prichard, M.S., Water Management Specialist<br />
(Land, Air, and Water Resources)<br />
Lawrence Schwankl, Ph.D., Irrigation Specialist<br />
(Land, Air, and Water Resources)<br />
Richard Snyder, Ph.D., Biometeorologist Specialist<br />
(Land, Air, and Water Resources)<br />
Kenneth Tate, Extension Rangeland Specialist<br />
(Agronomy and Range Science)<br />
Graduate Study. The Graduate Group in Hydrologic<br />
Sciences is an interdisciplinary program offering<br />
M.S. and Ph.D. degrees. Course work is<br />
available from many programs, including Hydrologic<br />
Sciences, Civil and Environmental Engineering,<br />
Geology, and Soil Science. Education in the group<br />
broadens the skills and knowledge of the physical<br />
science or engineering student interested in the<br />
occurrence, distribution, circulation and properties<br />
of water on earth. Because of water's ubiquity and<br />
importance to physical, chemical and biological processes,<br />
hydrologic sciences involve the geologic,<br />
atmospheric and oceanic sciences, as well as engineering<br />
and other applied physical sciences. Basic<br />
to the program are core courses in fluid dynamics,<br />
hydrologic phenomena, hydrobiology, hydrogeochemistry,<br />
hydrologic techniques, and hydrologic<br />
policy. Students can pursue specializations in<br />
hydrogeochemistry, surface hydrology, subsurface<br />
hydrology, irrigation and drainage, watershed<br />
hydrology and water resources management. The<br />
subsurface hydrology specialization includes hydrogeology<br />
and vadose-zone hydrology.<br />
Preparation. Applicants to the program are<br />
expected to have completed or to be completing an<br />
undergraduate degree in environmental or physical<br />
sciences, mathematics, or engineering. Undergraduate<br />
study must include one year each of calculus, of<br />
physics with calculus, and of chemistry. A second<br />
year of vector calculus, linear algebra and differential<br />
equations is recommended and will be required,<br />
before completion of graduate work. Additional<br />
courses in applied statistics, computer programming,<br />
and geology are recommended.<br />
Specialization. Each student will pursue an individual<br />
program of advanced study under the direction<br />
of a group of faculty members with similar<br />
interests but diverse backgrounds. Course work in<br />
addition to the above is typically taken in the most<br />
appropriate departments.<br />
Graduate Adviser. Mark E. Grismer (Land, Air,<br />
and Water Resources)<br />
Courses in Hydrologic Sciences<br />
(HYD)<br />
Graduate Courses<br />
200. Survey of Hydrologic Sciences (1)<br />
Seminar—1 hour; term paper. Prerequisite: open to<br />
students in the Hydrologic Sciences program. Seminar<br />
course exposes students to the diversity of sciences<br />
involved in the program. Students prepare a<br />
paper and presentation in their area of research<br />
interest. May be repeated twice for credit. (S/U<br />
grading only.)—I, II, III. (I, II, III.) Grismer<br />
205. Continuum Mechanics of Natural<br />
Systems (4)<br />
Lecture/discussion—4 hours. Prerequisite: Mathematics<br />
21D and 22B, Physics 9B. Continuum<br />
mechanics of static and dynamic air, water, earth<br />
and biological systems using hydraulic, heat and<br />
electrical conductivity; diffusivity; dispersion; strain;<br />
stress; deformation gradient; velocity gradient;<br />
stretch and spin tensors. (Same course as Biological<br />
Systems Engineering 205.)—I. Wallender<br />
210. Vadose Zone Transport Processes and<br />
Modeling (3)<br />
Lecture/discussion—3 hours. Prerequisite: Soil Science<br />
107, Mathematics 22B, programming language,<br />
or consent of instructor. Principles and<br />
modeling of water flow and chemical transport in the<br />
vadose zone, with specific applications to soils. Topics<br />
include hydraulic properties, finite difference<br />
application to unsaturated water flow, parameter<br />
optimization, diffusive and convective transport in<br />
gaseous and liquid phases. Offered in alternate<br />
years.—(III.) Hopmans<br />
243. Water Resource Planning and<br />
Management (3)<br />
Lecture—3 hours. Prerequisite: course 141 or Civil<br />
and Environmental Engineering 142. Applications of<br />
deterministic and stochastic mathematical programming<br />
techniques to water resource planning, analysis,<br />
design and management. Water allocation,<br />
capacity expansion, and reservoir operation. Conjunctive<br />
use of surface water and groundwater.<br />
Water quality management. Irrigation planning and<br />
operation models. (Same course as Biological Systems<br />
Engineering 243.)—I. (I.) Marino<br />
252. Hillslope Geomorphology and<br />
Sediment Budgets (4)<br />
Lecture—3 hours; fieldwork—3 hours. Prerequisite:<br />
course 141 or Geology 35 or Civil and Environmental<br />
Engineering 142 or consent of instructor. Exploration<br />
of theoretical and empirical foundations of<br />
sediment production on hillslopes using computer<br />
models and field experiments to promote an understanding<br />
of how watersheds evolve naturally and<br />
with human impacts. Offered in alternate years.—III.<br />
Pasternack<br />
256. Geomorphology of Estuaries and<br />
Deltas (4)<br />
Lecture—3 hours; fieldwork—3 hours. Prerequisite:<br />
course 141 or Geology 35 or Civil and Environmental<br />
Engineering 42 or consent of instructor. Survey of<br />
the processes and landforms associated with sediment<br />
deposition in the coastal zone. Application of<br />
geomorphic principles to coastal management<br />
issues. Offered in alternate years.—III. Pasternack<br />
264. Modeling of Hydrologic Processes (3)<br />
Lecture—3 hours. Prerequisite: course 141 or the<br />
equivalent and Statistics 102 or the equivalent. Techniques<br />
used to model the spatio-temporal structure of<br />
rainfall and runoff are introduced. Procedures studied<br />
include those based on stochastic point processes,<br />
chaos theory, fractal geometry, and<br />
fractional noises. Offered in alternate years.—(III.)<br />
Puente<br />
269. Numerical Modeling of Groundwater<br />
Systems (3)<br />
Lecture—3 hours. Prerequisite: course 145A or Civil<br />
Engineering 144 and course 145B, Mathematics<br />
22B. Finite difference and finite element techniques<br />
in modeling groundwater flow and transport. Fundamentals<br />
of constructing and calibrating models with<br />
hands-on applications. Methods and limitations of<br />
numerical solution of transport equations. Model<br />
interpretation and ethics.—III. (III.) Fogg<br />
273. Introduction to Geostatistics (3)<br />
Lecture—3 hours. Prerequisite: Statistics 130A and<br />
130B, or the equivalent. Statistical treatment of spatial<br />
data with emphasis on hydrologic problems. Topics<br />
include theory of random functions, variogram<br />
analysis, Kriging, co-Kriging, indicator geostatistics,<br />
and stochastic simulation of spatial variability. Demonstration<br />
and use of interactive geostatistical software<br />
included. Offered in alternate years.—I. Fogg<br />
275. Analysis of Spatial Processes (3)<br />
Lecture—3 hours. Prerequisite: Statistics 102 or the<br />
equivalent; course 273 or Statistics 273A recommended.<br />
Characterization of homogeneous random<br />
fields; extremes and spectral parameters; geometry<br />
of excursions, local averaging; scale of fluctuation;<br />
non-Gaussian and irregular random fields; geostatistical<br />
applications. Offered in alternate years.—(III.)<br />
Puente<br />
286. Selected Topics in Environmental<br />
Remote Sensing (3)<br />
Discussion—2 hours; lecture—1 hour; project. Prerequisite:<br />
Environmental and Resource Sciences 186<br />
or the equivalent; Environmental and Resource Sciences<br />
186L recommended. In depth investigation of<br />
advanced topics in remote sensing applications,<br />
measurements, and theory. Not offered every<br />
year.—Ustin<br />
290. Seminar in Hydrologic Science (1)<br />
Seminar—1 hour. Prerequisite: graduate standing<br />
and background in Hydrologic Science, consent of<br />
instructor. Seminars and critical review of problems,<br />
Quarter Offered: I=Fall, II=Winter, III=Spring, IV=Summer; 2007-<strong>2008</strong> offering in parentheses<br />
<strong>General</strong> Education (GE) credit: ArtHum=Arts and Humanities; SciEng=Science and Engineering; SocSci=Social Sciences; Div=Social-Cultural Diversity; Wrt=Writing Experience