19.01.2015 Views

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

SHOW MORE
SHOW LESS

Create successful ePaper yourself

Turn your PDF publications into a flip-book with our unique Google optimized e-Paper software.

286 Geology<br />

Courses in Geology (GEL)<br />

Lower Division Courses<br />

1. The Earth (4)<br />

Lecture—3 hours; discussion—1 hour. Introduction to<br />

the study of the Earth. Earth’s physical and chemical<br />

structure; internal and surface processes that mold<br />

the Earth; geological hazards and resources. Not<br />

open for credit to students who have completed<br />

course 50. Only 2 units of credit to students who<br />

have completed course 2. GE credit: SciEng.—I, II,<br />

III. (I, II, III.) Osleger, Verosub<br />

2. The Blue Planet: Introduction to Earth<br />

Science (3)<br />

Lecture—3 hours. Study of the solid and fluid earth<br />

and its place in the solar system. Holistic examination<br />

of how the solid earth interacts with the atmosphere,<br />

hydrosphere, biosphere, and extraterrestrial<br />

environment. Not open for credit to students who<br />

have completed course 50. Only 2 units of credit to<br />

students who have completed course 1. GE credit:<br />

SciEng.—I. (I.) Sumner<br />

2G. The Blue Planet: Introduction to Earth<br />

Science Discussion (1)<br />

Discussion—1 hour. Prerequisite: course 2 concurrently.<br />

Small group discussion and preparation of<br />

short papers for course 2. GE credit with concurrent<br />

enrollment in course 2: Wrt.—I. (I.) Sumner<br />

3. History of Life (3)<br />

Lecture—3 hours. Prerequisite: course 1 recommended.<br />

The history of life during the three and onehalf<br />

billion years from its origin to the present day.<br />

Origin of life and processes of evolution; how to<br />

visualize and understand living organisms from their<br />

fossil remains. GE credit: SciEng.—II. (II.) Motani<br />

3G. History of Life: Discussion (1)<br />

Discussion—1 hour. Prerequisite: course 3 concurrently.<br />

Small group discussion and preparation of<br />

short papers for course 3. GE credit with concurrent<br />

enrollment in course 3: Wrt.—II. (II.) Motani<br />

3L. History of Life Laboratory (1)<br />

Laboratory—3 hours. Prerequisite: course 3 concurrently.<br />

Exercises in understanding fossils as the clues<br />

to interpreting ancient life, including their functional<br />

morphology, paleoecology, and evolution.—II. (II.)<br />

Motani<br />

4. Evolution: Science and World View (3)<br />

Lecture—2 hours; discussion—1 hour. Introduction to<br />

biological evolution. Emphasis on historical development,<br />

major lines of evidence and causes of evolution;<br />

relationships between evolution and Earth<br />

history; the impact of evolutionary thought on other<br />

disciplines. GE credit: SciEng.—I. (I.) Vermeij<br />

10. Modern and Ancient Global<br />

Environmental Change (3)<br />

Lecture—3 hours. Fundamental scientific concepts<br />

underlying issues such as global warming, pollution,<br />

and the future of nonsustainable resources presented<br />

in the context of anthropogenic processes as well as<br />

natural forcing of paleoenvironmental change<br />

throughout Earth’s history. GE credit: SciEng.—III.<br />

(III.) Montañez<br />

12. Evolution and Paleobiology of<br />

Dinosaurs (2)<br />

Lecture—2 hours. Introduction to evolutionary biology,<br />

paleobiology, ecology and paleoecology, using<br />

dinosaurs as case studies.—II. (II.) Carlson<br />

17. Earthquakes and Other Earth Hazards<br />

(2)<br />

Lecture—2 hours. The impact of earthquakes, volcanoes,<br />

landslides and floods on Man, his structures<br />

and his environment. Discussion of the causes,<br />

effects, and solution of geologic problems in rural<br />

and urban settings.—I, III. (I, III.) Dewey<br />

16. The Oceans (3)<br />

Lecture—3 hours. Introductory survey of the marine<br />

environment. Oceanic physical phenomena, chemical<br />

constituents and chemistry of water, geological<br />

history, the seas biota and human utilization of<br />

marine resources. Not open for credit to students<br />

who have taken course 116. GE Credit: SciEng—II.<br />

(II.) Hill<br />

16G. The Oceans: Discussion (2)<br />

Discussion/laboratory—2 hours; term paper or discussion.<br />

Prerequisite: course 16 (concurrent). Scientific<br />

method applied to discovery of the processes,<br />

biota and history of the oceans. Group discussion<br />

and preparation of term paper. Not open for credit<br />

to students who have taken course 116G. GE<br />

Credit: SocSci, Wri.—II. (II.) Hill<br />

20. Geology of California (2)<br />

Lecture—2 hours. The geologic history of California,<br />

the origin of rocks and the environments in which<br />

they were formed, the structure of the rocks and the<br />

interpretation of their structural history, mineral<br />

resources, and appreciation of the California landscape.—II.<br />

(II.) Osleger<br />

25. Geology of National Parks (2)<br />

Lecture—2 hours. Appreciation of the geologic<br />

framework underlying the inherent beauty of U.S.<br />

National Parks. Each park provides a visual focus<br />

for understanding a variety of geologic processes<br />

such as mountain building, volcanism, stream erosion,<br />

and glacial action.—I. (I.) Osleger<br />

32. Volcanoes (3)<br />

Lecture—3 hours. Role of eruptions, and eruptive<br />

products of volcanoes in shaping the planet’s surface,<br />

influencing its environment, and providing<br />

essential human resources. GE: SciEng.—III. (III.)<br />

Cooper<br />

35. Rivers (3)<br />

Lecture—3 hours. Introduction to geomorphology, climate<br />

and geology of rivers and watersheds, with<br />

case examples from California. Assessment of<br />

impacts of logging, agriculture, mining, urbanization<br />

and water supply on river processes. Optional river<br />

field trips. GE credit: SciEng.—III. (III.) Mount<br />

36. The Solar System (4)<br />

Lecture—3 hours; discussion—1 hour. Nature of the<br />

sun, moon, and planets as determined by recent<br />

manned and unmanned exploration of the solar system.<br />

Comparison of terrestrial, lunar, and planetary<br />

geological processes. Search for life on other planets.<br />

Origin and evolution of the solar system. (Former<br />

course 113-113G.) GE credit: SciEng, Wrt.—III. (III.)<br />

Osleger<br />

50. Physical Geology (3)<br />

Lecture—3 hours. Prerequisite: high school physics<br />

and chemistry. The Earth, its materials, its internal<br />

and external processes, its development through<br />

time by sea-floor spreading and global plate tectonics.<br />

Students with credit for course 1 or the equivalent<br />

may receive only 2 units for course 50.—I. II. (I,<br />

II.) Rustad, McClain<br />

50L. Physical Geology Laboratory (2)<br />

Laboratory—6 hours; one or two one-day field trips.<br />

Prerequisite: course 50 (preferably taken concurrently).<br />

Introduction to classification and recognition<br />

of minerals and rocks and to interpretation of topographic<br />

and geologic maps and aerial photographs.<br />

Students with credit for course 1L or the equivalent<br />

may receive only 1 unit for course 50L.—I. II. (I, II.)<br />

Rustad, McClain<br />

60. Earth Materials: Introduction (4)<br />

Lecture—3 hours; laboratory—3 hours. Prerequisite:<br />

Chemistry 2A; Mathematics 16A or 21A; course 1<br />

or 50, 50L. Physical and chemical properties of<br />

rocks, minerals and other earth materials; structure<br />

and composition of rock-forming minerals; formation<br />

of minerals by precipitation from silicate liquids and<br />

aqueous fluids and by solid state transformations.—<br />

I. (I.) Rustad<br />

62. Optical Mineralogy (2)<br />

Lecture—1 hour; laboratory—3 hours. Prerequisite:<br />

course 60 (may be taken concurrently); high school<br />

physics is strongly recommended. Optical properties<br />

of inorganic crystals; techniques of mineral identification<br />

using the polarizing microscope; strategies<br />

for studying rocks in thin section.—I. (I.) Rustad, Day<br />

91. Geology of Campus Waterways (1)<br />

Lecture/discussion—1 hour; fieldwork—1 hour.<br />

Research characterizing geological processes in<br />

waterways on campus including links among hydrologic,<br />

atmospheric, physical, and human processes;<br />

carbon cycling and interpreting processes from sediments;<br />

field research techniques; research project<br />

design and implementation; implications of results<br />

for society and environmental policy. May be<br />

repeated for credit three times. (P/NP grading only)<br />

—I, II, III. (I, II, III.) Osleger, Sumner<br />

99. Special Study for Undergraduates (1-5)<br />

Prerequisite: consent of instructor; lower division<br />

standing. (P/NP grading only.)<br />

Upper Division Courses<br />

100. Earth Dynamics I: Extensional and<br />

Translational Processes (3)<br />

Lecture—3 hours. Prerequisite: course 50, 50L, Physics<br />

7A or 9A (may be taken concurrently), or consent<br />

of instructor. Structural features of, and geophysical<br />

constraints on, regions of extensional and translational<br />

tectonics. Observation, formation, and tectonic<br />

environments of joints, fractures, normal faults,<br />

and strike-slip faults. GE credit: SciEng, Wrt.—I. (I.)<br />

Cowgill<br />

100L. Earth Dynamics I: Structure/Tectonics<br />

Laboratory (1)<br />

Laboratory—3 hours; two one-day field trips<br />

required. Prerequisite: course 50L and course 100<br />

(may be taken concurrently); or consent of instructor.<br />

Introduction to three-dimensional analysis of geologic<br />

structures; introduction to field techniques; interpretation<br />

of topographic and geologic maps;<br />

tectonic analysis of extensional and strike-slip terranes.—I.<br />

(I.) Cowgill<br />

101. Earth Dynamics II: Convergent and<br />

Collisional Processes (3)<br />

Lecture—3 hours. Prerequisite: courses 50-50L, 100,<br />

Mathematics 21B or 16B (may be taken concurrently),<br />

Physics 5A or 7A or 9A (may be taken concurrently);<br />

or consent of instructor. Geophysical and<br />

structural signatures of convergent tectonics, subduction<br />

zones, plate collisions and mountain belts. Topics<br />

include ductile deformation, folds, seismic Benioff<br />

zones, gravity and isostacy. Examples of collisions<br />

and resulting mountain belts. Examples drawn from<br />

western North America. GE credit: SciEng, Wrt.—II.<br />

(II.) Billen<br />

101L. Earth Dynamics II: Structure/Tectonics<br />

Laboratory (2)<br />

Laboratory and fieldwork—6 hours; six days of field<br />

trips on four separate weekends required. Prerequisite:<br />

courses 50L, 100L, and 101 (may be taken concurrently);<br />

or consent of instructor. Continuation of<br />

Geology 100L. Analysis of three-dimensional geologic<br />

structures; introduction to field techniques; fieldmapping<br />

projects; interpretation of topographic and<br />

geologic maps; tectonic analysis of convergent and<br />

collisional terranes.—II. (II.) Billen<br />

103. Field Geology (3)<br />

Fieldwork and laboratory—9 hours; 7-8 days on<br />

weekends during quarter. Prerequisite: course 101L<br />

or consent of instructor. Field mapping projects and<br />

writing geological reports. Weekly classroom meetings<br />

devoted to preparation of maps, cross sections,<br />

stratigraphic sections, rock descriptions, and<br />

reports.—III. (III.) Lesher<br />

105. Earth Materials: Igneous Rocks (4)<br />

Lecture—2 hours; laboratory—6 hours. Prerequisite:<br />

courses 60, 62; Mathematics 16A or 21A; Chemistry<br />

2B (may be taken concurrently). Origin and<br />

occurrence of igneous rocks. Laboratory exercises<br />

emphasize the study of these rocks in hand specimen<br />

and thin section. GE credit: SciEng, Wrt.—II. (II.)<br />

Lesher<br />

106. Earth Materials: Metamorphic Rocks<br />

(4)<br />

Lecture—2 hours; laboratory—6 hours. Prerequisite:<br />

course 105, Chemistry 2B, Mathematics 16A or<br />

21A. Physical and chemical properties of metamorphic<br />

rocks; interpretation of metamorphic environments.<br />

Laboratory exercises emphasize the study of<br />

these rocks in hand specimen and thin section. GE<br />

credit: SciEng, Wrt.—III. (III.) Day<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

Hooray! Your file is uploaded and ready to be published.

Saved successfully!

Ooh no, something went wrong!