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9781575040370

Remote Sensing Change Detection : Environmental Monitoring Methods and Applications

by ;
  • ISBN13:

    9781575040370

  • ISBN10:

    1575040379

  • Edition: 1st
  • Format: Hardcover
  • Copyright: 1999-06-01
  • Publisher: Taylor & Francis
  • View Upgraded Edition
  • Purchase Benefits
List Price: $79.95

Table of Contents

Applications, Project Formulation, and Analytical Approach
Introduction
1(1)
Applications
2(1)
Project Formulation
3(1)
Problem Definition
4(1)
Product Specifications
5(1)
Data Requirements
6(1)
Data Availability
7(1)
Data Acquisition Costs
7(1)
Data Analysis Costs
8(1)
Analytical Approach
8(1)
Data Acquisition and Preprocessing
8(1)
Geometric and Radiometric Corrections
9(1)
Data Normalization
10(1)
Change Detection Analysis
10(4)
Accuracy Assessment
14(1)
Summary
14(7)
Survey of Multispectral Methods for Land Cover Change Analysis
Introduction
21(1)
Land Cover Change
21(1)
Digital Remote Sensing of Land Cover Change
22(1)
Scene Selection and Preprocessing: Optimizing for Digital Land Cover Change Detection
22(2)
Spectral Change Identification Methods
24(1)
Spectral Change Identification Methods with Pixel-Wise Operations
25(3)
Spectral Change Identification Methods with Scene-Wise Operations
28(4)
Post-Classification Comparison Methods
32(1)
Direct Multidate Classification Methods
32(1)
Hybrid Methods
33(1)
Examples
33(1)
Post-Classification Land Cover Change Analysis
33(2)
Land Cover Change Analysis Using Spectral Change Identification
35(1)
Conclusion
35(6)
North American Landscape Characterization: ``Triplicate'' Data Sets and Data Fusion Products
Introduction
41(1)
Background
42(1)
Approach
43(1)
Satellite Data Acquisitions
43(1)
New Data Acquisitions and Archival Scene Selection
44(1)
Triplicate Data Sets
44(1)
Database Development
44(1)
Land Cover Categorization
45(1)
Accuracy Assessment
46(1)
Database Availability and Distribution
47(1)
NALC Project Results
48(1)
Triplicate Images
48(1)
Categorization Products
48(1)
Carbon Inventory Products
48(1)
Discussion
49(1)
Summary
50(3)
Classification-Based Change Detection: Theory and Applications to the NALC Data Set
Introduction
53(1)
Background
54(1)
Classification-Based Change Detection
54(2)
Detecting Change by Classifying the Difference Images
56(2)
Detecting Change with a Single Classifier
58(1)
Ancillary Information for the NALC Data Set
58(1)
Progressive Classification and Change Detection
59(1)
The Progressive Classification Framework
59(1)
The Progressive Classification Algorithm
60(2)
ASCR-Based Change Detection
62(1)
Relative Radiometric Normalization
62(1)
Automated Scattergram-Controlled Regression
63(1)
Identifying Region of No-Change
63(2)
Benefits of the Approach
65(1)
Learning from Unreliable Training Sets
65(1)
USGS Land Use and Land Cover Maps
65(1)
Systematic Errors
66(2)
Automated Change Detection
68(1)
System Architecture
69(1)
Preprocessing
69(1)
The Classifier
70(1)
Summary
71(4)
An Evaluation of the CoastWatch Change Detection Protocol in South Carolina
Introduction
75(2)
South Carolina CoastWatch Study Areas
77(1)
Fort Moultrie, South Carolina
77(1)
Kittredge, South Carolina
77(1)
Data Sources and Preprocessing
77(1)
Image Rectification
77(1)
Classification of Multiple Dates of Imagery
78(1)
Classification of the Fort Moultrie Study Area
78(3)
Classification of the Kittredge Study Area
81(1)
Change Detection
81(1)
Treatments
81(1)
Fort Moultrie Study Area Change Detection
82(1)
Kittredge Study Area Change Detection
83(1)
The Effect of Tidal Stage on Wetland Classification in the Fort Moultrie Study Area
84(1)
Recommendations
85(1)
CoastWatch Image Data Selection
85(1)
Image Classification
85(1)
Change Detection
85(1)
CoastWatch Products
85(1)
Summary
86(3)
Comparison of Methods for Detecting Conifer Forest Change with Thematic Mapper Imagery
Introduction
89(2)
Theoretical Considerations for CVA
91(2)
Preliminary Test of Methods
93(2)
Results and Discussion
95(3)
Conclusions
98(1)
Summary
99(4)
Wildfire Detection with Meteorological Satellite Data: Results from New Mexico During June of 1996 Using GOES, AVHRR, and DMSP-OLS
Introduction
103(1)
Experiment Description
104(1)
Sensor Characteristics and Application of Fire Detection Algorithms
105(1)
GOES
106(2)
NOAA-AVHRR
108(1)
DMSP-OLS
109(1)
Results
110(2)
GOES
112(1)
AVHRR
113(1)
DMSP Smoothed
114(1)
DMSP Direct Readout
115(1)
Discussion
116(1)
GOES
116(1)
AVHRR
117(1)
DMSP-OLS
117(1)
Summary
118(5)
Detection of Fires and Power Outages Using DMSP-OLS Data
Introduction
123(1)
The DMSP Operational Linescan System
124(2)
Methods and Results
126(1)
Stable Lights
126(4)
Identification of Fires
130(2)
Identification of Power Outages
132(1)
Factors Affecting the Detection of Fires and Power Outages
133(1)
Summary
134(3)
Change Identification Using Multitemporal Spectral Mixture Analysis: Applications in Eastern Amazonia
Introduction
137(1)
Background
138(1)
Spectral Mixture Analysis
138(2)
Image Endmembers vs Reference Endmembers
140(1)
Selecting Reference Endmembers
141(1)
Reflectance Retrieval and Relative Radiometric Calibration
142(2)
General Strategy for Change Identification
144(1)
Examples From Eastern Amazonia
144(1)
Study Site
144(2)
Image Processing
146(2)
Analysis of Fractions
148(3)
Multitemporal Classification
151(7)
Summary
158(5)
Seasonal Vegetation Patterns in a California Coastal Savanna Derived from Advanced Visible/Infrared Imaging Spectrometer (AVIRIS) Data
Introduction
163(2)
Background
165(1)
Study Site
165(1)
Imaging Spectrometry Data
165(1)
GIS Database and Methods
166(1)
Image Calibration Procedures
167(1)
Spectral Mixture Analysis
168(1)
Spectral Endmember Library
169(1)
Seasonal Changes in Ecosystem Characteristics
170(1)
Seasonal Spectral Characteristics of Different Vegetation Types
170(1)
Temporal Patterns in Liquid Water
171(1)
Spatial Trends in Surface Properties
172(3)
Temporal Changes in Surface Composition
175(1)
Summary
176(5)
Vegetation Change Detection Using High Spectral Resolution Vegetation Indices
Introduction
181(2)
Albedo Effect on Ratios
183(1)
Red-NIR Slope Effect
183(1)
Nonlinear Mixing Albedo Effect
183(1)
Study Area
184(1)
Data Acquisition and Analysis
184(2)
Results
186(3)
Summary
189(2)
Monitoring Trends in Wetland Vegetation Using Landsat MSS Time Series
Introduction
191(3)
Site Description
194(1)
Satellite Image Data
195(1)
Satellite Data Processing
195(1)
Image-to-Image Coregistration
195(3)
Calibration to Surface Reflectance
198(3)
Perpendicular Vegetation Index
201(2)
Satellite Data Analysis
203(1)
Chronological PVI Series for the Wetlands
203(1)
Modeling Mean Annual PVI Curves
203(1)
Analysis of Vegetation Trends
204(2)
Summary
206(5)
Radar Remote Sensing of Wetlands
Introduction
211(1)
Wetlands
211(1)
Remote Sensing of Wetlands
212(1)
Radar Remote Sensing
213(5)
Detecting Flooding Under Forest Canopies
218(1)
Mangrove Forests
219(1)
Detecting Flooding Under Grass Canopies
220(1)
Complexities in Flood Detection
221(2)
Soil Moisture and Open Water
223(1)
Vegetation Orientation and Radar Polarization
224(1)
Incidence Angle, Orientation, and Polarization
224(6)
Radar Wavelength
230(1)
Classification Using Radar Systems
231(4)
Summary
235(10)
Radar Interferometry for Environmental Change Detection
Introduction
245(1)
Basic Principles of Interferometric SAR (InSAR)
245(1)
Principles of Imaging Radar
245(1)
SAR Image Phase and Coherence
246(2)
Configurations for Acquiring Across-Track Interferometric SAR Image Pairs
248(1)
Geometry of Single-Pass InSAR
249(3)
Geometry of Repeat-Pass InSAR
252(3)
Mapping Height with Interferometry: Height Sensitivity and Baseline
255(3)
InSAR Processing
258(2)
Differential Interferometric SAR
260(3)
Key Requirements for Successful Repeat-Pass SAR Interferometry
263(2)
Limitations and Problems
265(1)
Earthquake Studies
266(1)
Case Example: The 1995 Hyogoken-Nanbu Earthquake
266(1)
Use of Differential InSAR for Monitoring of Seismic Activity
267(2)
Volcano Monitoring
269(1)
Environmental Monitoring
270(1)
Topographic Mapping
270(3)
Measurement of Erosion and Landslides
273(1)
Tectonic Motion and Ocean Tidal Loading
273(2)
Subsidence
275(1)
Glaciers and Ice Sheets
275(1)
Future Technological Developments
276(5)
Sampling Systems for Change Detection Accuracy Assessment
Introduction
281(4)
Sampling Methods
285(1)
Change Detection
285(1)
The Change Detection Error Matrix
286(2)
Inclusion Probabilities for Polygons and Pixels Under Stratification
288(1)
Sample Size Determination for Estimating Overall Accuracy (Pc) or User's Accuracy Within Stratum i (PUi)
288(2)
Simple Random Sampling for the Accuracy of Thematic Classes
290(1)
Increasing Precision
291(2)
Stratified Random Sampling
293(1)
Disproportionate Stratified Sampling
294(6)
Double Sampling with Ratio Estimation
300(1)
Double Sampling with Regression Estimation
301(1)
Double Sampling with Regression Estimation for Proportions
302(1)
Regression
303(1)
Adaptive Sampling
303(1)
Stratified Adaptive Sampling
304(1)
Summary
305(4)
Index 309

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