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9783540648604

Remote Sensing Digital Image Analysis: An Introduction

by
  • ISBN13:

    9783540648604

  • ISBN10:

    3540648607

  • Edition: 3rd
  • Format: Hardcover
  • Copyright: 1999-06-01
  • Publisher: SPRINGER

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Summary

Remote Sensing Digital Image Analysis provides the non-specialist with an introduction to quantitative evaluation of satellite and aircraft derived remotely retrieved data. Each chapter covers the pros and cons of digital remotely sensed data, without detailed mathematical treatment of computer based algorithms, but in a manner conductive to an understanding of their capabilities and limitations. Problems conclude each chapter. This fourth edition has been developed to reflect the changes that have occurred in this area over the past several years. Its focus is on those procedures that seem now to have become part of the set of tools regularly used to perform thematic mapping. As with previous revisions, the fundamental material has been preserved in its original form because of its tutorial value; its style has been revised in places and it has been supplemented if newer aspects have emerged in the time since the third edition appeared. It still meets, however, the needs of the senior student and practitioner.

Table of Contents

Sources and Characteristics of Remote Sensing Image Data
1(38)
Introduction to Data Sources
1(6)
Characteristics of Digital Image Data
1(1)
Spectral Ranges Commonly Used in Remote Sensing
2(4)
Concluding Remarks
6(1)
Weather Satellite Sensors
7(2)
Polar Orbiting and Geosynchronous Satellites
7(1)
The NOAA AVHRR (Advanced Very High Resolution Radiometer)
8(1)
The Nimbus CZCS (Coastal Zone Colour Scanner)
8(1)
GMS VISSR (Visible and Infrared Spin Scan Radiometer) and GOES Imager
8(1)
Earth Resource Satellite Sensors in the Visible and Infrared Regions
9(10)
The Landsat System
9(1)
The Landsat Instrument Complement
10(1)
The Return Beam Vidicon (RBV)
11(1)
The Multispectral Scanner (MSS)
11(2)
The Thematic Mapper (TM) and Enhanced Thematic Mapper+ (ETM+)
13(1)
The SPOT HRV, HRVIR, HRG and Vegetation Instruments
14(1)
ADEOS (Advanded Earth Observing Satellite)
15(1)
Sea-Viewing Wide Field of View Sensor (SeaWiFS)
16(1)
Marine Observation Satellite (MOS)
16(2)
Indian Remote Sensing Satellite (IRS)
18(1)
RESURS-O1
18(1)
Aircraft Scanners in the Visible and Infrared Regions
19(6)
General Considerations
19(1)
The Daedalus AADS 1240/1260 Multispectral Line Scanner
20(1)
The Airborne Thematic Mapper (ATM)
21(1)
The Thermal Infrared Multispectral Scanner (TIMS)
21(1)
Imaging Spectrometers
22(3)
Image Data Sources in the Microwave Region
25(5)
Side Looking Airborne Radar and Synthetic Aperture Radar
25(2)
The Seasat SAR
27(1)
Spaceborne (Shuttle) Imaging Radar-A (SIR-A)
28(1)
Spaceborne (Shuttle) Imaging Radar-B (SIR-B)
28(1)
Spaceborne (Shuttle) Imaging Radar-C (SIR-C)/X-band Synthetic Aperture Radar (X-SAR)
28(1)
ERS-1, 2
28(1)
JERS-1
28(1)
Radarsat
29(1)
Aircraft Imaging Radar Systems
29(1)
Spatial Data Sources in General
30(5)
Types of Spatial Data
30(1)
Data Formats
31(1)
Geographic Information Systems (GIS)
32(2)
The Challenge to Image Processing and Analysis
34(1)
A Comparison of Scales in Digital Image Data
35(4)
References for Chapter 1
36(1)
Problems
37(2)
Error Correction and Registration of Image Data
39(36)
Sources of Radiometric Distortion
39(5)
The Effect of the Atmosphere on Radiation
39(4)
Atmospheric Effects on Remote Sensing Imagery
43(1)
Instrumentation Errors
43(1)
Correction of Radiometric Distortion
44(4)
Detailed Correction of Atmospheric Effects
44(2)
Bulk Correction of Atmospheric Effects
46(1)
Correction of Instrumentation Errors
47(1)
Sources of Geometric Distortion
48(8)
Earth Rotation Effects
49(2)
Panoramic Distortion
51(2)
Earth Curvature
53(1)
Scan Time Skew
54(1)
Variations in Platform Altitude, Velocity and Attitude
54(1)
Aspect Radio Distortion
55(1)
Sensor Scan Nonlinearities
55(1)
Correction of Geometric Distortion
56(10)
Use of Mapping Polynomials for Image Correction
56(1)
Mapping Polynomials and Ground Control Points
57(1)
Resampling
58(1)
Interpolation
58(2)
Choice of Control Points
60(1)
Example of Registration to a Map Grid
61(3)
Mathematical Modelling
64(1)
Aspect Ratio Correction
64(1)
Earth Rotation Skew Correction
64(1)
Image Orientation to North-South
65(1)
Correction of Panoramic Effects
65(1)
Combining the Corrections
65(1)
Image Registration
66(4)
Georeferencing and Geocoding
66(1)
Image to Image Registration
66(1)
Sequential Similarity Detection Algorithm
67(1)
Example of Image to Image Registration
67(3)
Miscellaneous Image Geometry Operations
70(5)
Image Rotation
70(1)
Scale Changing and Zooming
70(1)
References for Chapter 2
71(1)
Problems
71(4)
The Interpretation of Digital Image Data
75(14)
Approaches to Interpretation
75(1)
Forms of Imagery for Photointerpretation
76(3)
Computer Processing for Photointerpretation
79(2)
An Introduction to Quantitative Analysis -- Classification
81(1)
Multispectral Space and Spectral Classes
82(2)
Quantitative Analysis by Pattern Recognition
84(5)
Pixel Vectors and Labelling
84(1)
Unsupervised Classification
85(1)
Supervised Classification
85(2)
References for Chapter 3
87(1)
Problems
88(1)
Radiometric Enhancement Techniques
89(24)
Introduction
89(2)
Point Operations and Look Up Tables
89(1)
Scalar and Vector Images
89(2)
The Image Histogram
91(1)
Contrast Modification in Image Data
92(5)
Histogram Modification Rule
92(1)
Linear Contrast Enhancement
93(2)
Saturating Linear Contrast Enhancement
95(1)
Automatic Contrast Enhancement
96(1)
Logarithmic and Exponential Contrast Enhancement
96(1)
Piecewise Linear Contrast Modification
96(1)
Histogram Equalization
97(5)
Use of the Cumulative Histogram
97(4)
Anomalies in Histogram Equalization
101(1)
Histogram Matching
102(4)
Principle of Histogram Matching
102(1)
Image to Image Contrast Matching
103(1)
Matching to a Mathematical Reference
104(2)
Density Slicing
106(7)
Black and White Density Slicing
106(1)
Colour Density Slicing and Pseudocolouring
107(2)
References for Chapter 4
109(1)
Problems
110(3)
Geometric Enhancement Using Image Domain Techniques
113(20)
Neighbourhood Operations
113(1)
Template Operators
113(1)
Geometric Enhancement as a Convolution Operation
114(3)
Image Domain Versus Fourier Transformation Approaches
117(1)
Image Smoothing (Low Pass Filtering)
118(4)
Mean Value Smoothing
118(3)
Median Filtering
121(1)
Edge Detection and Enhancement
122(7)
Linear Edge Detecting Templates
123(1)
Spatial Derivative Techniques
124(1)
The Roberts Operator
124(1)
The Sobel Operator
125(1)
Thinning, Linking and Border Responses
125(1)
Edge Enhancement by Subtractive Smoothing (Sharpening)
126(3)
Line Detection
129(1)
Linear Line Detecting Templates
129(1)
Non-linear and Semi-linear Line Detecting Templates
129(1)
General Convolution Filtering
130(1)
Shape Detection
130(3)
References for Chapter 5
131(1)
Problems
132(1)
Multispectral Transformations of Image Data
133(22)
The Principal Components Transformation
133(15)
The Mean Vector and Covariance Matrix
133(3)
A Zero Correlation, Rotational Transform
136(6)
An Example -- Some Practical Considerations
142(2)
The Effect of an Origin Shift
144(1)
Application of Principal Components in Image Enhancement and Display
144(1)
The Taylor Method of Contrast Enhancement
145(3)
Other Applications of Principal Components Analysis
148(1)
The Kauth-Thomas Tasseled Cap Transformation
148(4)
Image Arithmetic, Band Ratios and Vegetation Indices
152(3)
References of Chapter 6
152(1)
Problems
153(2)
Fourier Transformation of Image Data
155(26)
Introduction
155(1)
Special Functions
155(3)
The Complex Exponential Function
155(1)
The Dirac Delta Function
156(1)
Properties of the Delta Function
157(1)
The Heaviside Step Function
157(1)
Fourier Series
158(1)
The Fourier Transform
159(1)
Convolution
160(2)
The Convolution Integral
160(2)
Convolution with an Impulse
162(1)
The Convolution Theorem
162(1)
Sampling Theory
162(3)
The Discrete Fourier Transform
165(8)
The Discrete Spectrum
165(1)
Discrete Fourier Transform Formulae
166(1)
Properties of the Discrete Fourier Transform
167(1)
Computation of the Discrete Fourier Transform
168(1)
Development of the Fast Fourier Transform Algorithm
168(3)
Computational Cost of the Fast Fourier Transform
171(1)
Bit Shuffling and Storage Considerations
172(1)
The Discrete Fourier Transform of an Image
173(4)
Definition
173(1)
Evaluation of the Two Dimensional, Discrete Fourier Transform
173(1)
The Concept of Spatial Frequency
174(2)
Image Filtering for Geometric Enhancement
176(1)
Convolution in Two Dimensions
176(1)
Concluding Remarks
177(4)
References for Chapter 7
178(1)
Problems
179(2)
Supervised Classification Techniques
181(42)
Steps in Supervised Classification
181(1)
Maximum Likelihood Classification
182(7)
Bayes' Classification
182(1)
The Maximum Likelihood Decision Rule
183(1)
Multivariate Normal Class Models
184(1)
Decision Surfaces
184(1)
Thresholds
185(2)
Number of Training Pixels Required for Each Class
187(1)
A Simple Illustration
187(2)
Minimum Distance Classification
189(3)
The Case of Limited Training Data
189(1)
The Discriminant Function
189(1)
Degeneration of Maximum Likelihood to Minimum Distance Classification
190(1)
Decision Surfaces
191(1)
Thresholds
192(1)
Parallelepiped Classification
192(1)
Classification Time Comparison of the Classifiers
193(1)
The Mahalanobis Classifier
194(1)
Table Look Up Classification
194(1)
Context Classification
195(6)
The Concept of Spatial Context
195(1)
Context Classification by Image Pre-Processing
195(1)
Post Classification Filtering
196(1)
Probabilistic Label Relaxation
196(1)
The Basic Algorithm
196(2)
The Neighbourhood Function
198(1)
Determining the Compatibility Coefficients
199(1)
The Final Step -- Stopping the Process
199(1)
Examples
200(1)
Classification Using Neural Networks
201(22)
Linear Discrimination
201(1)
Concept of a Weight Vector
201(2)
Testing Class Membership
203(1)
Training
204(2)
Setting the Correction Increment
206(1)
Classification -- The Threshold Logic Unit
206(1)
Multicategory Classification
207(1)
Networks of Classifiers -- Solutions of Nonlinear Problems
208(1)
The Neural Networks Approach
209(1)
The Processing Element
209(2)
Training the Neural Network -- Backpropagation
211(3)
Choosing the Network Parameters
214(1)
Examples
215(4)
References for Chapter 8
219(2)
Problems
221(2)
Clustering and Unsupervised Classification
223(16)
Delineation of Spectral Classes
223(1)
Similarity Metrics and Clustering Criteria
223(2)
The Iterative Optimization (Migrating Means) Clustering Algorithm
225(3)
The Basic Algorithm
225(2)
Mergings and Deletions
227(1)
Splitting Elongated Clusters
227(1)
Choice of Initial Cluster Centres
227(1)
Clustering Cost
228(1)
Unsupervised Classification and Cluster Maps
228(1)
A Clustering Example
228(2)
A Single Pass Clustering Technique
230(3)
Single Pass Algorithm
230(1)
Advantages and Limitations
231(1)
Strip Generation Parameter
232(1)
Variations on the Single Pass Algorithm
232(1)
An Example
232(1)
Agglomerative Hierarchical Clustering
233(2)
Clustering by Histogram Peak Selection
235(4)
References for Chapter 9
237(1)
Problems
237(2)
Feature Reduction
239(20)
Feature Reduction and Separability
239(1)
Separability Measures for Multivariate Normal Spectral Class Models
239(8)
Distribution Overlaps
239(1)
Divergence
240(1)
A General Expression
240(2)
Divergence of a Pair of Normal Distributions
242(1)
Use of Divergence for Feature Selection
242(1)
A Problem with Divergence
243(1)
The Jeffries-Matusita (JM) Distance
244(1)
Definition
244(1)
Comparison of Divergence and JM Distance
245(1)
Transformed Divergence
245(1)
Definition
245(1)
Relation between Transformed Divergence and Probability of Correct Classification
246(1)
Use of Transformed Divergence in Clustering
247(1)
Separability Measures for Minimum Distance Classification
247(1)
Feature Reduction by Data Transformation
247(12)
Feature Reduction Using the Principal Components Transformation
247(2)
Canonical Analysis as a Feature Selection Procedure
249(1)
Within Class and Among Class Covariance Matrices
250(1)
A Separability Measure
251(1)
The Generalised Eigenvalue Equation
252(1)
An Example
253(2)
Arithmetic Transformations
255(1)
References for Chapter 10
256(1)
Problems
256(3)
Image Classification Methodologies
259(34)
Introduction
259(1)
Supervised Classification
259(3)
Outline
259(1)
Determination of Training Data
260(1)
Feature Selection
260(1)
Detecting Multimodal Distributions
261(1)
Presentation of Results
261(1)
Effect of Resampling on Classification
262(1)
Unsupervised Classification
262(2)
Outline, and Comparison with Supervised Methods
262(2)
Feature Selection
264(1)
A Hybrid Supervised/Unsupervised Methodology
264(1)
The Essential Steps
264(1)
Choice of the Clustering Regions
265(1)
Rationalisation of the Number of Spectral Classes
265(1)
Assessment of Classification Accuracy
265(5)
Case Study 1: Irrigated Area Determination
270(6)
Background
270(1)
The CSIRO-ORSER Image Analysis Software
270(1)
The Study Region
270(1)
Clustering
271(3)
Signature Generation
274(1)
Classification and Results
274(1)
Concluding Remarks
274(2)
Case Study 2: Multitemporal Monitoring of Bush Fires
276(7)
Background
276(1)
Simple Illustration of the Technique
276(2)
The Study Area
278(1)
Registration
278(1)
Principal Components Transformation
279(2)
Classification of Principal Components Imagery
281(2)
Hierarchical Classification
283(10)
The Decision Tree Classifier
283(1)
Decision Tree Design
283(3)
Progressive Two-Class Decision Classifier
286(1)
Error Accumulation in a Decision Tree
287(1)
Reference for Chapter 11
288(2)
Problems
290(3)
Data Fusion
293(20)
The Stacked Vector Approach
293(1)
Statistical Methods
294(1)
The Theory of Evidence
295(3)
The Concept of Evidential Mass
295(1)
Combining Evidence -- the Orthogonal Sum
296(2)
Decision Rule
298(1)
Knowledge-Based Image Analysis
298(15)
Knowledge Processing: Emulating Photointerpretation
299(1)
Fundamentals of a Knowledge-Based Image Analysis System
300(1)
Structure
300(1)
Representation of Knowledge: Rules
301(1)
The Inference Mechanism
302(1)
Handling Multisource and Multisensor Data
303(2)
An Example
305(1)
Rules as Justifiers for a Labelling Proposition
306(1)
Endorsement of a Labelling Proposition
307(1)
Knowledge Base and Results
308(2)
Reference for Chapter 12
310(2)
Problems
312(1)
Interpretation of Hyperspectral Image Data
313(26)
Data Characteristics
313(2)
The Challenge of Interpretation
315(4)
Data Volume
315(1)
Redundancy
315(2)
The Need for Calibration
317(1)
The Problem of Dimensionally: the Hughes Phenomenon
318(1)
Data Calibration Techniques
319(3)
Detailed Radiometric Correction
319(1)
Data Normalisation
320(1)
Approximate Radiometric Correction
321(1)
Interpretation by Spectral Analysis
322(5)
Spectroscopic Analysis
322(1)
Spectral Angle Mapping
322(1)
Library Searching Techniques
323(1)
Binary Spectral Codes
323(2)
Matching Algorithms
325(2)
Hyperspectral Interpretation by Statistical Methods
327(2)
Limitations of Traditional Thematic Mapping Procedures
327(1)
Block-based Maximum Likelihood Classification
327(2)
Feature Reduction
329(2)
Feature Selection
329(1)
Spectral Transformations
329(2)
Feature Selection from Principal Components Transformed Data
331(1)
Compression of Hyperspectral Data
331(3)
Spectral Unmixing: End Member Analysis
334(5)
Reference for Chapter 13
335(1)
Problems
336(3)
Appendix A -- Satellite Altitudes and Periods 339(2)
References for Appendix A
340(1)
Appendix B -- Binary Representation of Decimal Numbers 341(2)
Appendix C -- Essential Results from Vector and Matrix Algebra 343(6)
C.1 Definition of a Vector and a Matrix
343(2)
C.2 Properties of Matrices
345(1)
C.3 Multiplication, Addition and Subtraction of Matrices
346(1)
C.4 The Eigenvalues and Eigenvectors of a Matrix
346(1)
C.5 Some Important Matrix, Vector Operations
347(1)
C.6 An Orthogonal Matrix -- the Concept of Matrix Transpose
347(1)
C.7 Diagonalisation of a Matrix
347(2)
References for Appendix C
348(1)
Appendix D -- Some Fundamental Material from Probability and Statistics 349(4)
D.1 Conditional Probability
349(1)
D.2 The Normal Probability Distribution
350(3)
D.2.1 The Univariate Case
350(1)
D.2.2 The Multivariate Case
350(1)
Reference for Appendix D
351(2)
Appendix E -- Penalty Function Derivation of the Maximum Likelihood Decision Rule 353(4)
E.1 Loss Functions and Conditional Average Loss
353(1)
E.2 A particular Loss Function
354(3)
References for Appendix E
355(2)
Subject Index 357

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