![]()
![]()
SPRING 2000
This information effective for Spring 2000.
Check with instructor the first day of class for any changes.
Catalog Description
Introduction to earth materials, earth processes, and earth structure: origin of the earth, evolution of the continents and ocean basins, geologic time, world-wide earthquake belts, formation of landscapes and global change. Includes a one-day, optional field trip. General Education Codes: IN, Q.
Detailed Description
Geology is a very natural science, blending elements of chemistry, physics, and biology, and, through interaction of the solid Earth with the atmosphere, drawing in meteorology, oceanography and marine sciences as well. EART10 introduces the basic principles of geology, working from minerals to rocks to processes to earth structure. We will see that our planet works as an interacting system of matter and energy, producing volcanoes, earthquakes, glaciers, mountains, continents and oceans. The energy that drives the system comes from Earth's internal heat and solar radiation. The matter of Earth-its rocks and minerals-and its structure are the relics of Earth system processes evolving over the 4.6 billion years of geologic time. Rocks, and the minerals that comprise them, tell us the story of this evolution. They record ancient volcanism, ancient mountain building events, ancient climates and ancient shifts in landmass position. Reading that story requires knowledge of minerals and rocks, of how familiar processes act to shape the rock record, and of geologic time. The Earth operates over a bewildering range of time scales: from the seconds and minutes of earthquake rupture, to the tens and thousands and millions of years of climate variability, to the billions of years of continental evolution . We will see how processes operating on different time scales, including anthropogenic effects, interact to shape the planet's landforms and biota.EART10 is a gateway to a major in Earth Sciences. For those of you looking to satisfy an IN or Q requirement, it is the gateway to a greater appreciation of the physical world around you.
Prerequisites: A desire to learn about the natural world you live in.
Instructor
Justin Revenaugh
A101 Earth & Marine Sciences
459-3055
jsr@es.ucsc.edu
Webpages
Course webpages contain complete copies of lectures, all course handouts, lab materials, supplementary materials and notices of help and review sessions. Tests from previous years are also available.
Textbook
The Dynamic Earth, Fourth Edition, by B.J. Skinner and S.C. Porter (available at the bookstore).All assigned readings come from this book. Included with the book is a collection of black and white reproductions of nearly all of the overheads used in class.
Tests
There are two midterms, breaking the quarter into thirds. They are closed book, consisting of multiple choice and short essay questions. The final will stress material from the final three weeks of class, but will have minor comprehensive elements.
Homework
There will be four homework assignments during the quarter. Help sessions will be scheduled prior to the due date of each.
Final Project
All students participate in a small-group, multimedia projects presented in section during the last week of class. Project themes are chosen by the groups.
Grading
Grading reflects a mix of homework and test scores with specific emphasis placed on the component in which the student performs best. You must, however, pass the tests to pass the class. Attendance and active participation in section is expected.
Syllabus
Week 1 - Introduction to the Earth; Minerals
Week 2 - Igneous Rocks and Volcanism; Sedimentary Rocks
Week 3 - Metamorphic Rocks; The Rock Record and Geologic Tim
Week 4 - First Midterm; Folds and Faults
Week 5 - Mass Wasting; Groundwater and the Hydrologic Cycle
Week 6 - Rivers; Wind and Deserts
Week 7 - Oceans and Coasts; Second Midterm
Week 8 - More Oceans and Coasts; Climate Change and the Fossil Record
Week 9 - Earthquakes; Earth's Interior
Week 10 - Plate Tectonics; More Plate Tectonics
Field Trip
There is an optional field trip to the Pinnacles National Monument tentatively scheduled for the sixth Saturday of the quarter. There is no assignment associated with it. It will be fun, but only if you want to go--that's why it's optional.
Lab
The lab (EART10L) is required of all Earth Science majors, but is optional for non- majors and carries no general education codes . It stresses mineral and rock identification skills, map reading and structural interpretation. Taking it will definitely bolster your understanding and appreciation of lecture material. Non-majors should strongly consider it if it fits your schedule. The lab meets once a week for three hours. There are two short in-lab quizzes and a short lab final. In-lab field trips will be held as weather permits.
Instructor: Ken Cameron
Week Date Day Lecture Lab 1 Mar 31 Fri. Introduction; Brunton compass No lab 2 Apr 7 Fri. Campus Topo Exercise Topo maps and profiles 3 Apr. 14 Fri. Rock descriptions; Field notes Introduction. to Pt
Lobos Time quiz; strike and dip exercise 4 Apr. 21 Fri Report writing; Review of Pt. Lobos; Introduction to Big
Creek Pt Lobos Field Exercise-II Rock descriptions 5 Apr. 28 Fri. Leave for Pfeiffer-Big Sur campground at 2:30 p.m. Geologic maps 6 May 7 Fri. Preparation for New Idria Work on Big Creek map 7 May 12-14 Fri.- Sun. New Idria Field Exercise (leave 8:00 am
Friday) Big Creek help session 8 May 19 Fri. New Idria discussion Work on New Idria map 9 May 26 Fri. Wrap-up, turn in equipment New Idria help session 10 June 2 Fri. New Idria Report Due New Idria help session
Apr. 15
Sat.
Pt Lobos Field Exercise-I
Apr. 22
Sat.
Apr. 29-30
Sat.- Sun.
Big Creek Field Exercise
Instructor: Ken Cameron
Week Date Day Lecture 1 Mar 29 31 W F Geological Framework of California Isotropic and uniaxial optical crystallography 2 Apr 3 5 7 M W F Lab #2 Birefringence Pleochroism in uniaxial minerals Biaxial indicatrix, *Quiz 3 10 12 14 M W F Biaxial figures Optical orientation of Minerals Lab #5 continued, *Quiz 4 17 19 21 M W F Introduction to igneous rocks Mantle rocks Other ultramafic rocks, *Quiz 5 24 26 28 M W F Ophiolites Paleozoic/Mesozoic California Basalts *Quiz 6 May 1 3 5 M W F Phase rule P-T diagrams Rock Series *Quiz 7 8 10 12 M W F Sr isotopes-Granites Intro. to Metamorphism Catch-up 8 15 17 19 M W F Metamorphic facies Metamorphic facies Dehydration reactions *Quiz 9 22 24 26 M W F Metabasites Pelitic rocks Preview of Field Trip *Quiz 10 29 31 June 2 3 M W F Sat Memorial Day Holiday Exchange Day: Volcanology Volcanology continued **Field Trip: Traverse of a Convergent Margin**
Lecture Final: Friday, June 11, 12-3 pm
[top of page]
Instructor: Gary A Glatzmaier, Professor of Earth Sciences
Earth and Marine Sciences Building, Room A102
459-5504, glatz@es.ucsc.edu
Check http://www.igpp.lanl.gov/Geodynamo.html for a summary of the instructor's most recent 3D computer modeling simulations of the generation of the geomagnetic field via convection and rotation in the Earth's fluid outer core.
Text: "Introduction to Geophysical Fluid Dynamics" by Benoit Cushman-Roisin
Course description:
This is an introduction to the study of fluid flow, starting with the fundamental concepts of inertia, pressure gradient, buoyancy, viscosity, rotation, and thermodynamics. The general equations governing conservation of mass, momentum, and energy are studied and traditional approximations to these equations are described for various problems. The lectures focus on the different styles of thermal convection and global circulation in the Earth's atmosphere, ocean, mantle, and core. Applications to other terrestrial planets, giant planets, and stars will also be investigated. The students will get hands-on experience developing a computer program for modeling a simple thermal convection problem and analyzing the results of simulations.
Topics by week:
Concepts and equations of fluid dynamics.
Rotational effects.
Geostrophic and barotropic flows.
Viscous boundary layer flows.
Barotropic waves and ocean circulation.
Stratification and convection.
Atmospheric circulation.
Mantle convection.
Core and stellar convection.
Computer modeling projects.
This course is designed for upper-division science majors and graduate students.
Prerequisites (for undergraduates): EART 110C, 111 (or Math 11C or 19A or PHYS 114B), PHYS 5B or 6B.
Recommended: EART 113, PHYS 107, CS 60N.
Student Evaluation: Quizzes, computer modeling project report and presentation, class participation