G300: ENVIRONMENTAL AND URBAN GEOLOGY SYLLABUS
- I. Scientific Information and Land Use
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- A. Nature and Use of Scientific Information
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- 1. Types of Information
- 2. Use of Information in Urban Development
- B. Examples of the Need for Scientific Information
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- 1. Love Canal
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- a. History of the Project
- b. Analysis of Decisions Made
- c. After-the-Fact Studies of the Site
- 2. The Alaskan Pipeline Project
- C. Requiring the Use of Scientific Information
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- 1. National Environmental Policy Act (NEPA) of 1969
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- a. Purpose(s) of the Act
- b. Environmental Impact Statements
- D. Forecasting Based on Scientific Information
- II. Soils
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- A. Reasons to Collect Information about Soils
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- 1. Soils as a Resource
- 2. Soils as a Filter
- 3. The Problem of Soil Erosion
- B. Nature and Origin of Soils
- C. Erosion Problems
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- 1. Erosion Problems in the Past
- 2. Erosion in the U.S.
- D. Soil Erosion and Land Use Decisions
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- 1. Government Policies Affecting Erosion
- III. Water Resources
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- A. Physical Aspects
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- 1. Hydrologic Cycle
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- a. Processes
- b. Spatial and Temporal Scales
- 2. Streams
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- a. Discharge
- b. Hydrographs
- c. Types of Streamsa.
- (1) Effluent
- (2) Influent
- 3. Up-basin vs Down-basin Nature of Streams
- 4. Characterizing a Watershed
- 5. U.S.G.S. Cataloging System
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- a. Types of Watersheds
- b. Limitations of the System
- B. Examples of Water Management Problems
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- 1. Colorado River Basin
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- a. Allocation of the Water
- b. Long-term vs. Short-term trends in the Annual Flow
- c. Central Arizona Project
- 2. Northeast U.S.
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- a. Droughts
- b. Watershed Protection Program in New York
- 3. Lakes, Streams, and Wetlands
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- a. Characteristics
- b. Types and Spatial Scales of Processes Acting
- IV. Groundwater
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- A. Water in the Ground
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- 1. Basic Data
- B. The Flow of Ground Water
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- 1. Darcy's Law
- 2. Conductivities of Soils and Rocks
- C. Extrapolating from Drill Hole Data
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- 1. Contour Maps
- 2. Flow Nets
- D. Evaluation of Ground Water Resources
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- 1. Types of Aquifers
- 2. Yield of an Aquifer
- 3. Recharge of an Aquifer
- E. Managing Ground Water Resources
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- 1. Long Island, New York
- 2. Ogallala Aquifer
- F. Water Law
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- 1. Prior Appropriation vs. Riparian Rights
- V. Hazards and Risks
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- A. Distinction between them
- B. Types of Hazards
- C. Evaluation of Risk
- D. Examples of Risk Analysis
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- 1. Insurance for Floods and Earthquakes
- 2. Land Capability Analysis
- 3. Appropriate Land Use
- E. Reducing Risk
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- 1. Mitigation Steps
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- a. Zoning
- b. Insurance
- VI. Pollution
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- A. Types of Contaminants
- B. Assessment of Harm
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- 1. Epidemiology
- C. Sources of Contamination
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- 1. Point Sources
- 2. Non-Point Sources
- D. Processes involved
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- 1. Paths Taken
- 2. Effects Depend on:
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- a. Nature of the Compound
- b. Interactions with the Medium and other Compounds
- E. Examples
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- 1. Point Sources
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- a. Septic Systems
- b. Landfills
- c. Reilly Tar & Chemical Superfund Site
- 2. Non-Point Sources
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- a. Effects on Lakes and Streams
- F. Control of Pollution
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- 1. Source Reduction
- 2. Remediation Techniques
- G. Government Policies Affecting Pollution
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- 1. "Command and Control" Measures
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- a. Best Available Technologies
- b. National Pollution Discharge Elimination, System (NPDES) permits
- 2. "Market" Approaches
- VII. Floods
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- A. Terminology
- B. Flood Frequency
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- 1. Recurrence Intervalsa.
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- a. Calculation
- b. Reliability
- C. Example
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- 1. Midwest, 1993
- D. Flood Control
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- 1. Structural Approaches
- 2. Non-Structural Approaches
- E. Predicting Flood Magnitude
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- 1. Exceedance Probability
- 2. Computer-Model Forecasts
- F. Land Use and River Flooding
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- 1. Effects of Urbanization
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- a. Long Island, NY
- G. Flood-Hazard Policy and Planning
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- 1. Need for Non-Structural Approaches
- 2. National Flood Insurance Program
- 3. Current Policy
- H. Example
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- 1. Rapid City, SD
- VIII. Earthquakes
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- A. Causes of Earthquakes
- B. Movement on Faults
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- 1. Geometric characteristics
- 2. Time Frames
- C. Earthquake Records
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- 1. Reading Seismograms
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- a. Types of Waves
- b. Times of Arrival and Paths
- c. Amplitude of the Waves
- D. Earthquake Magnitude
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- 1. Magnitudes based on Amplitude
- 2. Moment Magnitude
- E. Earthquake Intensity
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- 1. Scale
- 2. Determination
- F. Earthquake Prediction
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- 1. Efforts
- 2. Reasons for Failure
- G. Identifying Earthquake Hazards
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- 1. Mapping Faults (CA)
- 2. Locating Epicenters (Midwest)
- 3. Problems
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- a. Blind Faults (CA)
- b. Small Data Sets (Oklahoma)
- H. Statistical Forecasting
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- 1. Exceedance Probabilities
- 2. Seismic Risk Map
- 3. Repeat-Time Studies
- I. Predicting Intensities
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- 1. Attenuation
- 2. Duration of the Motion
- 3. Local Ground Conditions
- J. Earthquake Prediction Requirements
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- 1. Need a "Model"
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- a. Elastic Rebound
- b. Complexity of the Actual Situation
- 2. Data Collection
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- a. Repeat Times
- b. Crustal Tilting
- c. Foreshock Activity
- K. Earthquake Disaster Planning
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- 1. Proposed National Insurance Program
- 2. Land-Use Planning
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- a. Example: San Francisco
- 3. Building Codes
- IX. The Coastal Zone
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- A. The Nature of Coastlines
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- 1. Sea-Cliff Coasts
- 2. Barrier Island Coasts
- 3. Estuaries
- 4. Salt Marshes
- B. Coastal Processes
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- 1. Erosion and Deposition
- C. Coastline Engineering
- D. Changes in Estuarine Systems
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- 1. Modifications due to Development
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- a. Biological Studies of the Effects of Development
- b. Conversion of Wetlands
- E. Coastline Management
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- 1. Structural and Non-Structural Approaches
- 2. Attitudes about Land Use
- 3. Coastal Zone Management Legislation