COURSE OUTLINE GEOLOGY 101, Sec 002 Fall 2008, Diecchio Text: Lutgens, Tarbuck and Tasa, Essentials of Geology, 10 th edition

Similar documents
GEOLOGY CURRICULUM. Unit 1: Introduction to Geology

Lecture 3 Rocks and the Rock Cycle Dr. Shwan Omar

Name Class Date. Study Guide for 7 th Grade Final Exam (Semester One)

TAKE HOME EXAM 8R - Geology

Rocks and the Rock Cycle. Banded Iron Formation

RAYMOND SIEVER Harvard University

SAN DIEGO COMMUNITY COLLEGE DISTRICT CITY, MESA, AND MIRAMAR COLLEGES ASSOCIATE DEGREE COURSE OUTLINE

Earth Science 14 th Edition, 2015 Tarbuck Lutgens - Tasa

A) B) C) D) 4. Which diagram below best represents the pattern of magnetic orientation in the seafloor on the west (left) side of the ocean ridge?

GO ON. Directions: Use the diagram below to answer question 1.

Questions and Topics

Course Description. Course Objectives and Standards

Chapter 2 Plate Tectonics and the Ocean Floor

Geosphere Final Exam Study Guide

Full file at

Earth Science. Explain how Earth's biogeochemical cycles create a balance of materials. Examine the importance of biogeochemical cycles.

CPO Science Middle School Earth Science Learning System Correlated to Ohio Science Academic Content Standards for Earth Science, grades 6-8

Physical Geography A Living Planet

Plate Tectonics. entirely rock both and rock

Prentice Hall: Science Explorer, 16 Book Series 2005 Correlated to: Alabama Science Standards for Earth and Space Science Core (Grade 6)

GLG101: What-To-Know List

water erosion lithosphere Describe the process of erosion and deposition. chemical weathering Dissolving limestone is an example of.

OUTCOMES BASED LEARNING MATRIX. Course: Physical Geology Department: _Physical Science. Study the text and lecture material

Name Date Class. Directions: Use the diagram below to answer question Florida Progress Monitoring and Benchmark Assessments

Geology : Embedded Inquiry

Reading Sections/Concept Check Questions for Earth Science, 13 th ed., Tarbuck, Lutgens, Tasa

Chapter 4: Plate Tectonics

Occurs in Nature SOLID Inorganic (not from a plant or animal) Crystalline (forms crystals) Atoms / Molecules bond in a regular pattern

UNIT 3 GEOLOGY VOCABULARY FLASHCARDS THESE KEY VOCABULARY WORDS AND PHRASES APPEAR ON THE UNIT 3 CBA

STATE UNIVERSITY OF NEW YORK COLLEGE OF TECHNOLOGY CANTON, NEW YORK

GENERAL GEOLOGY Fall Chapter 18: The Sea Floor. Partial Examination IV Study Guide Dr. Glen S. Mattioli

Structure of the Earth

A physical feature of the Earth s surface

Theory of Plate Tectonics

Earth/Space Honors EOC Pacing Guide

5. Compare the density of the oceanic crust to continental crust. 6. What kind of plate boundary is this? convergent

GG 101 Objectives. Chapter Links

A Correlation of Earth An Introduction to Physical Geology 2014

The continents are in constant! movement! Earth Science!

Name: Answer Key Date: Period:

Before Plate Tectonics: Theory of Continental Drift

COWLEY COLLEGE & Area Vocational Technical School

1. I can describe evidence for continental drift theory (e.g., fossil evidence, mountain belts, paleoglaciation)

Welcome to GEO 101 Introduction to Geology

Required Materials Plummer, C., Physical geology. Columbus, OH: McGraw Hill Higher Education

8 th Grade Science Plate Tectonics and Topography Review

STUDY GUIDE FOR MID-TERM EXAM KEY. Color, luster, cleavage, fracture, hardness, taste, smell, fluorescence, radioactivity, magnetism

Geology 300, Physical Geology Spring 2019 Quiz Ch 19, Plate Tectonics Name

Earth Systems Science Chapter 7. Earth Systems Science Chapter 7 11/11/2010. Seismology: study of earthquakes and related phenomena

The Rock Cycle The Rock Cycle illustrates the origin of igneous, sedimentary and metamorphic rocks

Chino Valley Unified School District High School Course Description

THE INTERNAL STRUCTURE OF THE EARTH

8 th Grade Science Tutoring. Earth Space, Ms. Winkle

Marine Science and Oceanography

Page One. GEOL 1030 Pre test S15. Please enter your rst and last name.

Sediment and sedimentary rocks Sediment

PART II. Physical Landscape Chapters 2 5

PHYSICAL GEOLOGY AND THE ENVIRONMENT (2 ND CANADIAN EDITION)

Mineral Element Compound Atom Crystal. Silicate Nonsilicate Inorganic Luster Streak. Cleavage Fracture Hardness Density Reclamation

Quiz 1. 3) Which of the following planetary bodies has the least number of impact craters on its surface? A) Mercury B) Mars C) the Moon D) Earth

core mantle crust the center of the Earth the middle layer of the Earth made up of molten (melted) rock

Plate Tectonics. I. The Discovery of Plate Tectonics II. A Mosaic of Plates III. Types of Plate Boundaries IV. How Plates Move

Week 1. Week 2. Week 3. Lab: Water Cycle with red dye or salt

Chapter 8: The Dynamic Planet

Internet Interactive Rock Cycle

Physical Geology, 15/e

Topic 12 Review Book Earth s Dynamic Crust and Interior

Section 11.1 pp Where Mountains Form

TEST NAME:Geology part 1 TEST ID: GRADE:06 - Sixth Grade SUBJECT:Life and Physical Sciences TEST CATEGORY: My Classroom

Rock Cycle. Draw the Rock cycle on your remediation page OR use a sheet of notebook paper and staple

Introduction To Plate Tectonics Evolution. (Continents, Ocean Basins, Mountains and Continental Margins)

10. Paleomagnetism and Polar Wandering Curves.

Global Tectonics. Kearey, Philip. Table of Contents ISBN-13: Historical perspective. 2. The interior of the Earth.

Review participation point: The evidence for a fluid outer core is:

Earth. Temp. increases with depth, the thermal gradient is 25 o C/km. Pressure and density also increase with depth.

Plate Tectonics. Chapter 17. Great Idea: The entire Earth is still changing, due to the slow convection of soft, hot rocks deep within the planet.

Plate Tectonics Tutoiral. Questions. Teacher: Mrs. Zimmerman. Plate Tectonics and Mountains Practice Test

10/11/2010. Acceleration due to gravity, a. Bulk Properties Mass = 6 x kg Diameter = 12,756 km Density = 5515 kg/m 3 (mix of rock and iron)

b. atomic mass H What is the density of an object with a volume of 15cm 3 and a mass of 45g?

COURSE OUTLINE. Lecture 3 x 16 = 48 = 3. Laboratory x = = Workshop x =

Section I: Multiple Choice Select the best answer to each question. Mark your final answer on the answer sheet. (1 pt each)

EXPLORING. liarxh # AN INTRODUCTION TO PHYSICAL GEOLOGY JON P. DAVIDSON UNIVERSITY OF CALIFORNIA, LOS ANGELES WALTER E. REED

Section 1: Earth s Interior and Plate Tectonics Section 2: Earthquakes and Volcanoes Section 3: Minerals and Rocks Section 4: Weathering and Erosion

Unit 1: Earth as a System. Section 1: Plate Tectonics and the Rock Cycle

The Official CA State Science Education Standards for Earth Science K 8

GEOL Introductory Geology: Exploring Planet Earth Fall 2010 Test #2 October 18, 2010

CONTENT. A. Changes in the Crust Facts Changes Construction and Destruction. B. Continental Drift What is it? Evidence

Prentice Hall EARTH SCIENCE

Prentice Hall EARTH SCIENCE

Geology 1 st Semester Exam YSBAT

Rocks. 3.1 The Rock Cycle. 3.1 The Rock Cycle. 3.1 The Rock Cycle. The Rock Cycle. I. Rocks

OCN 201: Seafloor Spreading and Plate Tectonics I

Name Student ID Exam 2c GEOL 1113 Fall 2009

12. The diagram below shows the collision of an oceanic plate and a continental plate.

Identify and explain monthly patterns in the phases of the Moon.

1. are most likely to study the images sent back from Mars. A. Astronomers B. Geologists C. Doctors D. Engineers

Mid-Term Exam Earth Science 2015 Test Summary Report 12/10/2015. Not associated with a question bank Multiple Choice 50 50

Ch. 9 Review. Pgs #1-31 Write Questions and Answers

Unit Topics. Topic 1: Earth s Interior Topic 2: Continental Drift Topic 3: Crustal Activity Topic 4: Crustal Boundaries Topic 5: Earthquakes

Chapter Overview. Evidence for Continental Drift. Plate Tectonics. Evidence for Continental Drift. Evidence for Continental Drift 9/28/2010

Transcription:

COURSE OUTLINE GEOLOGY 101, Sec 002 Fall 2008, Diecchio Text: Lutgens, Tarbuck and Tasa, Essentials of Geology, 10 th edition Overview Of Earth ch 1 Earth's place in solar system, galaxy, universe Atmosphere, hydrosphere, biosphere, lithosphere Earth s interior Earth's surface internal processes plate tectonics isostasy ch 17 (411-413) surficial processes ch 11 (246-248) ch 12 (272-274) Matter & Minerals ch 2 atoms elements atomic number isotopes atomic mass molecules & compounds bonds ionic bonds covalent bonds states of matter minerals chemical composition crystalline structure properties of minerals chemical composition of earth's crust major groups of minerals silicate minerals structural groups chemical trends 1

Igneous Rocks ch 3 composition variation of minerals (reflected in color) variable composition of magma cooling history (related to silicate structural groups) crystal size/texture rate of cooling volcanic (extrusive) rapid cooling fine crystalline (aphanitic), glassy, or fragmental texture plutonic (intrusive) slow cooling coarse crystalline (phaneritic) texture porphyritic - variable cooling rates other textures Surficial Processes hydrologic cycle atmospheric circulation patterns ch 12 (272-274) wind systems climate belts Weathering & Soils ch. 5 weathering mechanical weathering clastic particles particle size classification chemical weathering stability series products clays (particles) oxides (particles) dissolved ions soils soil profile development of soils types of soils pedocal pedalfer - laterite controls of soil type P - parent material P - process - weathering T - time soil properties soil as a resource 2

Sedimentary Rocks ch 6 weathering clastic sediment clastic rocks pieces of original rock clays oxides chemical sediment chemical rocks solutions & sedimentary precipitates carbon cycle and limestones erosion transportation deposition stratification sedimentary environments diagenesis lithification porosity & permeability interpreting earth history fossil fuels Metamorphic Rocks ch 7 contact metamorphism (high temperature) regional metamorphism (high pressure) foliation metamorphic grades mountain belts Rock Cycle Geologic time ch 18 relative time absolute time - - - - - today (0 my ago) Cenozoic Era - - - - - 65 my ago Mesozoic Era - - - - - 250 my ago Paleozoic Era - - - - - 540 my ago Precambrian Eon - - - - - 4600 my ago geologic timespans rates of geologic processes 3

Mass Wasting ch 8 causes & conditions types of slope failures recognition of unstable slopes slope stabilization Wind and Deserts ch 12 climate belts location of deserts wind erosion deposition sorting 4

hydrologic cycle Rivers and Streams ch 9 drainage basins (watersheds) drainage divides headwaters stream order baselevel(s) mouth source of water runoff springs mechanics of streams gradient graded stream profile channel size (cross-sectional area) velocity discharge variability floods stream sediment coarser upstream, finer downstream sorting erosion vs. deposition stream landforms erosional valleys depositional bars, floodplains, deltas, fans, terraces evolution of landscapes P - parent materials P - process T - time drainage basin evolution erosion cycles climate belts humid stream erosion cycle importance of groundwater fig 10.5 arid erosion cycle p 275-278 importance of wind differential erosion Valley & Ridge topography 5

Groundwater ch 10 water table porosity and permeability aquifer vs. aquiclude/aquitard movement of groundwater climate influent vs. effluent streams geologic complexities what geologists do practical considerations utilization of groundwater contamination of groundwater landforms karst PPT carbon cycle p. 158-159 erosion of soluble rocks deposition by groundwater Glaciers ch 11 global distribution high latitude glaciers continental high elevation glaciers alpine snowline varies with latitude mechanics of glaciers ice budget accumulation vs ablation glacial advance, retreat (recession) glacier movement fig. 1.12 glacial erosion glacial deposition glacial sediment lack of sorting glacial landforms recognition of past ice ages widespread effects of glaciation sea level changes isostatic adjustment p. 411-413 modification of land surface ice ages evidence of climate change history of climate change causes of ice ages & climate change carbon cycle 6

marine processes Shorelines ch 13 processes cyclical waves, tides, seasons concept of equilibrium shoreline non-cyclical storms, tsunami global sea-level change coastal landforms PPT coastal evolution primary coasts secondary coasts clastic shorelines energy vs. sediment supply finer sediment seaward high vs. low energy shorelines carbonate shorelines carbon cycle p. 158-159 deep sea p. 377-381 calm environment deep marine sediment submarine "landforms" origin not due to surficial processes plate tectonics 7

INTERIOR PROCESSES Earthquakes ch 14 (318-337) seismic waves intensity vs. magnitude focus (hypocenter) epicenter locating earthquake epicenters maximum intensity triangulation earthquake zones = zones of deformation = plate boundaries intra-plate seismicity Earth's Interior ch 14 (337-339) D=VT (distance = velocity x time) seismic refraction know D, measure T, calculate V V sol > V liq > V gas V increases with density predict nature of earth's interior regions seismic discontinuities seismic reflection know V, measure T, calculate D depth to seismic discontinuities characterizing earth s interior oceanic crust continental crust MOHO (M-discontinuity) mantle low velocity zone outer core P-wave shadow zone S-wave shadow zone inner core weak P-waves in P-wave shadow zone Crustal deformation types of geologic structures ch 17 (394-403) folds faults tensional - normal fault compressional - reverse fault translational - strike-slip fault 8

Plate Boundaries ch 15 (342-361) Types of plate boundaries divergent oceanic ridges & continental rift zones normal faults shallow focus, low magnitude earthquakes associated with transform faults (strike-slip) process: rifting convergent submarine trenches reverse faults shallow to deep focus earthquakes (Benioff zone) low to high magnitude earthquakes process: subduction translational transorm faults & fracture zones shallow focus earthquakes very low to very high magnitude earthquakes strike-slip faults earthquake prediction spatial, temporal, severity Volcanism ch 4 review igneous rocks generation of magma partial melting mantle source crustal source crystallization of magma differentiation volcanism properties of magmas density viscosity gas content types of eruptions - relationship to plate boundaries divergent plate boundaries mantle source mainly basaltic volcanism lava flows convergent plate boundaries crustal source mainly andesitic to rhyolitic volcanism pyroclastic eruptions batholiths hot spots prediction of volcanoes spatial - temporal - severity 9

Plate tectonics Paleomagnetism ch 15 (362-369) earth's magnetic field magnetic inclination remanent magnetization determination of paleo-latitude ancient pole positions polar wandering continental drift polarity reversals Evolution of Oceans ch 16 (382-391) geology of Iceland magnetic stripes patterns of stripes mechanics of rifting age of the sea floor evolution of ocean basins & oceanic crust sea floor spreading reconstruction of past 200 my Mountain Building ch 17 (404-411) geology of Himalayas and Indian Ocean patterns of magnetic stripes at trenches relationship between mountain belts and subduction zones destruction of oceanic crust evolution of volcanic arcs relationship between oceans and continents Wilson cycle evolution of continents& continental crust ch 19 (452-456) continental crust mountain belts platforms & shields model of growth of continents origin of continental crust Past, present & future earth Energy & Mineral Resources energy resources renewable vs. non-renewable resources exploration, extraction, processing utilization vs. environmental preservation fossil fuels carbon cycle alternate energy resources mineral resources & mining 10