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E-raamat: Digital Analysis of Remotely Sensed Imagery

  • Formaat: 674 pages
  • Ilmumisaeg: 01-May-2009
  • Kirjastus: McGraw-Hill Professional
  • Keel: eng
  • ISBN-13: 9780071604666
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  • Formaat: 674 pages
  • Ilmumisaeg: 01-May-2009
  • Kirjastus: McGraw-Hill Professional
  • Keel: eng
  • ISBN-13: 9780071604666
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"Jay Gao’s book on the analysis of remote sensing imagery is a well-written, easy-to-read, and informative text best serving graduate students in geosciences, and practitioners in the field of digital image analysis. Although Dr. Gao states that he has targeted his book at upper-level undergraduates and lower-level postgraduate students, its rigor and depth of mathematical analysis would challenge most students without prior experience in remote sensing and college-level mathematics. The book covers a lot of ground quickly, beginning with a basic explanation of pixels, digital numbers and histograms and advancing rapidly through a description of the most well-known satellite systems to data storage formats, rectification and classification. It best serves students who have already taken an introductory course in remote sensing. Following a three-chapter description of the basics the remaining eleven chapters are dedicated to the description of the most common image processing systems and the details of the image analysis functions which can be carried out. The largest portion of the text covers classification – spectral and spatial, neural networks, decision trees and expert systems – and is an invaluable reference to anyone interested in understanding image analysis terminology and the algorithms behind these different systems. The last chapter of the text is addressed to practitioners wishing to integrate remote sensing image data with GIS and/or GPS data. The text is nicely structured so that individual chapters can easily be skipped when their content is not of interest to the reader without impairing the understanding of later chapters.

"The first three chapters of the book cover introductory material that the reader should be familiar with for the most part, but also includes a very handy summary of today’s satellite systems. Chapter one addresses basic material, such as pixel DN, coordinates, feature space, histograms, and spatial, spectral, temporal and radiometric resolution normally covered in an introductory course in remote sensing. Chapter two presents a very informative and up-to-date overview of today’s satellite instruments including meteorological, oceanographic, earth resources, hyperspectral and radar instruments. Instrument and orbital parameters are presented in tabular form and make it easy to look up technical details such as spectral and spatial resolution, orbit type, repeat cycle and other instrument characteristics quickly. Written explanations are clear, readable and provide lots of interesting insight and useful tidbits of information such as potential problems and the cost of imagery. For technicians and programmers the third chapter provides details on storage formats, including descriptions of BSQ, BIL and BIP binary formats, and the most common graphics formats like GIF, TIFF and JPEG together with data compression techniques. Non-technicians can skip this chapter since image processing software will generally take care of format conversions internally without a need for understanding the nuances of each.

"Chapters four will be of interest to anyone considering the purchase of image processing software, or trying to understand the differences between systems. Gao provides a useful overview of existing software – IDRISI, ERDAS Imagine, ENVI, ER Mapper, PCI, eCognition and GRASS. A brief history of each provides useful background, and a discussion of the features of each together with a comparison (also given in tabular form) is informative to anyone considering a purchase.

"Chapter five can also be viewed as a stand-alone reference on rectification, but also serves as an excellent overview of the problems of dealing with mapping on a curved surface and has particular application for geographers and cartographers. It discusses the sources of geometric distortion, coordinated systems and projections, how image rectification is done – including the use of ground control points and implications for the order of transformation employed. There is a nice example showing how accuracy is influenced by the number of GCPs employed for SPOT and Landsat TM. For non-technical students the transformation mathematics can be skipped. A rather minimal section on image subsetting and mosaicking is included. Chapter six continues in much the same vein as the previous chapter, but discussing image enhancement – techniques that improve the visual quality of an image. The terms introduced here, such as density slicing, linear enhancement, stretching, and histogram equalization, will be familiar to users of image processing software and Gao provides a useful explanation of each in turn. Other application-oriented utilities such as band ratioing, vegetation indices, IHS and Tasseled Cap transformations and principal component analysis are presented in a form which is understandable to students with good mathematical grounding.

"The remainder of the text deals, to a large extent, with the topic of classification. Chapter seven initially discusses elements of image interpretation, but then devotes the chapter to a detailed presentation of the most common (and affordable) of these - spectral analysis. Gao presents the different algorithms used to define spectral distance, and then devotes text to a discussion of the inner workings of unsupervised classification systems. The section on supervised classification is a very useful reference for anyone undertaking this process – describing how to set about the classification process, the differences between the different classifiers, and how to choose an appropriate one. The concepts of fuzzy logic and sub-pixels classifiers are also presented briefly.

"From this point on, the text becomes much more specialized and technical and is geared towards graduate students, those carrying out research projects, and those interested in algorithmic detail. Chapter 8 is the first dealing with artificial intelligence and describes the fundamentals of neural networks. It provides sufficient information for a technically-minded non-specialist to understand the workings of such a system and serves as a good introduction to someone who is considering this field of research. Chapter nine offers an explanation of decision trees with both a descriptive verbal approach and with mathematical algorithmic detail. Chapter ten addresses spatial classifiers – in particular the analysis of texture. This chapter again leans more heavily towards mathematics and the detail is more suited to readers with a strong technical bent. Gao goes on to discuss the process of image segmentation and thence the fundamentals of object-oriented classification. There is a useful overview of two popular software packages – eCognition and Feature Analyst – together with a discussion of the strengths and weaknesses of object-based classification. Chapter eleven presents an overview of expert systems. This is an advanced field of artificial intelligence and is an ambitious undertaking to describe in fifty or so pages. It is an interesting read for someone trying to gain a superficial knowledge of the workings of such a system and the associated terminology, but for anyone wishing to work in the field, a much more in-depth coverage is necessary.

"At this point, the student who was just trying to understand the basics of image processing and classification (and who skipped chapters eight through eleven) should resume reading as the last three chapters provide very helpful practical information. Chapter twelve provides a useful discussion on the methodology for assessing the accuracy of a classification and includes sources of inaccuracy and interpretation of an error matrix. It provides worked examples of accuracy assessments using simple math. This is a valuable addition to the text and presents an important process that is often overlooked in reporting classification results. Chapters thirteen and fourteen also deal with very practical matters. Chapter thirteen describes procedures for handling the analysis of temporal changes via a variety of change detection algorithms, and chapter fourteen introduces the use of GIS and GPS data in image analysis.

"Dr. Gao has written an excellent text describing technical information in a very readable manner. His book will serve as a good text for a course in remote sensing/image analysis, assuming that the student has received instruction in the fundamentals of remote sensing and been introduced to some image processing software. Students wishing to become adept at the practicalities of fundamental image processing skills and classification can easily skip the mid section of the text, whereas those who are keen to learn about more sophisticated classifiers will gain the fundamentals of these from this section. Overall I found the book very informative and a pleasure to read."

Reviewed by Helen M. Cox, PhD.
Associate Professor,
Department of Geography,
California State University, Northridge

Preface xix
Acknowledgments xxiii
1 Overview 1
1.1 Image Analysis System
2
1.2 Features of Digital Image Analysis
3
1.2.1 Advantages
4
1.2.2 Disadvantages
5
1.3 Components of Image Analysis
6
1.3.1 Data Preparation
8
1.3.2 Image Enhancement
8
1.3.3 Image Classification
8
1.3.4 Accuracy Assessment
8
1.3.5 Change Detection
9
1.3.6 Integrated Analysis
9
1.4 Preliminary Knowledge
9
1.4.1 Pixel
9
1.4.2 Digital Number (DN)
11
1.4.3 Image Reference System
11
1.4.4 Histogram
13
1.4.5 Scatterplot
14
1.5 Properties of Remotely Sensed Data
15
1.5.1 Spatial Resolution
15
1.5.2 Spectral Resolution
17
1.5.3 Radiometric Resolution
18
1.5.4 Temporal Resolution
20
1.6 Organization of the Book
22
2 Overview of Remotely Sensed Data 25
2.1 Meteorological Satellite Data
26
2.2 Oceanographic Satellite Data
28
2.3 Earth Resources Satellite Data
30
2.3.1 Landsat Data
30
2.3.2 SPOT Data
35
2.3.3 IRS Data
39
2.3.4 ASTER Data
42
2.3.5 MODIS Data
46
2.3.6 ALOS Data
47
2.4 Very High Spatial Resolution Data
48
2.4.1 IKONOS
50
2.4.2 QuickBird
52
2.4.3 Orb View-3
55
2.4.4 Cartosat
56
2.4.5 WorldView
58
2.4.6 GeoEye-1
59
2.4.7 Other Satellite Programs
60
2.5 Hyperspectral Data
62
2.5.1 Hyperion Satellite Data
63
2.5.2 AVIRIS
64
2.5.3 CASI
65
2.6 Radar Data
67
2.6.1 JERS Data
67
2.6.2 ERS Data
67
2.6.3 Radarsat Data
69
2.6.4 EnviSat Data
71
2.7 Conversion from Analog Materials
74
2.8 Proper Selection of Data
78
2.8.1 Identification of User Needs
79
2.8.2 Seasonal Factors
80
2.8.3 Cost of Data
81
2.8.4 Mode of Data Delivery
81
References
82
3 Storage of Remotely Sensed Data 85
3.1 Storage of Multispectral Images
85
3.1.1 Storage Space Needed
85
3.1.2 Data Storage Forms
86
3.2 Storage Media
88
3.2.1 CDs
88
3.2.2 Digital Versatile Disk (DVD)
89
3.2.3 Memory Sticks
89
3.2.4 Computer Hard Disk
90
3.3 Format of Image Storage
91
3.3.1 Generic Binary
92
3.3.2 GIF
92
3.3.3 JPEG
93
3.3.4 TIFF and GeoTIFF
94
3.4 Data Compression
96
3.4.1 Variable-Length Coding
96
3.4.2 Run-Length Coding
97
3.4.3 LZW Coding
99
3.4.4 Lossy Compression
100
3.4.5 JPEG and JPEG 2000
101
References
104
4 Image Processing Systems 105
4.1 IDRISI
106
4.1.1 Image Analysis Functions
106
4.1.2 Display and Output
107
4.1.3 File Format
109
4.1.4 User Interface
109
4.1.5 Documentation and Evaluation
110
4.2 ERDAS Imagine
111
4.2.1 Image Display and Output
112
4.2.2 Data Preparation
112
4.2.3 Image Enhancement
114
4.2.4 Image Classification
114
4.2.5 Spatial Modeler
115
4.2.6 Radar
115
4.2.7 Other Toolboxes
115
4.2.8 Documentation and Evaluation
117
4.3 ENVI
118
4.3.1 Data Preparation and Display
118
4.3.2 Image Enhancement
119
4.3.3 Image Classification and Feature Extraction
120
4.3.4 Processing of Hyperspectral and Radar Imagery
122
4.3.5 Documentation and Evaluation
122
4.4 ER Mapper
123
4.4.1 User Interface, Data Input/Output and Preparation
123
4.4.2 Image Display
125
4.4.3 Image Enhancement and Classification
126
4.4.4 Image Web Server
126
4.4.5 Evaluation
127
4.5 PCI
128
4.5.1 Image Input and Display
128
4.5.2 Major Modules
130
4.5.3 User Interface
131
4.5.4 Documentation and Evaluation
131
4.6 eCognition
133
4.6.1 General Overview
133
4.6.2 Main Features
134
4.6.3 Documentation and Evaluation
134
4.7 GRASS
136
4.8 Comparison
138
References
141
5 Image Geometric Rectification 143
5.1 Sources of Geometric Distortion
144
5.1.1 Errors Associated with the Earth
144
5.1.2 Sensor Distortions
147
5.1.3 Errors Associated with the Platform
149
5.1.4 Nature of Distortions
151
5.2 Projection and Coordinate Systems
151
5.2.1 UTM Projection
152
5.2.2 NZMG
153
5.3 Fundamentals of Image Rectification
156
5.3.1 Common Terms
156
5.3.2 Image Geometric Transformation
156
5.3.3 GCPs in Image Transformation
158
5.3.4 Sources of Ground Control
160
5.4 Rectification Models
161
5.4.1 Affine Model
161
5.4.2 Sensor-Specific Models
161
5.4.3 RPC Model
162
5.4.4 Projective Transformation
162
5.4.5 Direct Linear Transform Model
163
5.4.6 Polynomial Model
164
5.4.7 Rubber-Sheeting Model
164
5.5 Polynomial-Based Image Rectification
165
5.5.1 Transform Equations
165
5.5.2 Minimum Number of GCPs
167
5.5.3 Accuracy of Image Transform
168
5.5.4 Creation of the Output Image
172
5.6 Issues in Image Georeferencing
176
5.6.1 Impact of the Number of GCPs
178
5.6.2 Impact of Image Resolution
180
5.6.3 Impact of GCP Quality
181
5.7 Image Orthorectification
183
5.7.1 Perspective versus Orthographic Projection
184
5.7.2 Methods of Image Orthorectification
185
5.7.3 Procedure of Orthorectification
188
5.8 Image Direct Georeferencing
192
5.8.1 Transformation Equation
192
5.8.2 Comparison with Polynomial Model
195
5.9 Image Subsetting and Mosaicking
197
5.9.1 Image Subsetting
197
5.9.2 Image Mosaicking
199
References
201
6 Image Enhancement 203
6.1 Contrast Stretching
204
6.1.1 Density Slicing
204
6.1.2 Linear Enhancement
205
6.1.3 Piecewise Linear Enhancement
208
6.1.4 Look-Up Table
208
6.1.5 Nonlinear Stretching
210
6.1.6 Histogram Equalization
211
6.2 Histogram Matching
216
6.3 Spatial Filtering
219
6.3.1 Neighborhood and Connectivity
219
6.3.2 Kernels and Convolution
219
6.3.3 Image Smoothing
221
6.3.4 Median Filtering
224
6.4 Edge Enhancement and Detection
224
6.4.1 Enhancement through Subtraction
225
6.4.2 Edge-Detection Templates
226
6.5 Multiple-Image Manipulation
227
6.5.1 Band Ratioing
228
6.5.2 Vegetation Index (Components)
229
6.6 Image Transformation
231
6.6.1 PCA
232
6.6.2 Tasseled Cap Transformation
242
6.6.3 HIS Transformation
244
6.7 Image Filtering in Frequency Domain
245
References
247
7 Spectral Image Analysis 249
7.1 General Knowledge of Image Classification
250
7.1.1 Requirements
250
7.1.2 Image Elements
250
7.1.3 Data versus Information
253
7.1.4 Spectral Class versus Information Class
254
7.1.5 Classification Scheme
255
7.2 Distance in the Spectral Domain
257
7.2.1 Euclidean Spectral Distance
258
7.2.2 Mahalanobis Spectral Distance
259
7.2.3 Normalized Distance
260
7.3 Unsupervised Classification
260
7.3.1 Moving Cluster Analysis
260
7.3.2 Iterative Self-Organizing Data Analysis
264
7.3.3 Agglomerative Hierarchical Clustering
264
7.3.4 Histogram-Based Clustering
266
7.4 Supervised Classification
267
7.4.1 Procedure
267
7.4.2 Selection of Training Samples
270
7.4.3 Assessment of Training Sample Quality
271
7.5 Per-Pixel Image Classifiers
271
7.5.1 Parallelepiped Classifier
272
7.5.2 Minimum-Distance-to-Mean Classifier
274
7.5.3 Maximum Likelihood Classifier
276
7.5.4 Which Classifier to Use?
281
7.6 Unsupervised and Supervised Classification
283
7.7 Fuzzy Image Classification
284
7.7.1 Fuzzy Logic
285
7.7.2 Fuzziness in Image Classification
287
7.7.3 Implementation and Accuracy
289
7.8 Subpixel Image Classification
291
7.8.1 Mathematical Underpinning
291
7.8.2 Factors Affecting Performance
293
7.8.3 Implementation Environments
294
7.8.4 Results Validation
296
7.9 Postclassification Filtering
297
7.10 Presentation of Classification Results
300
References
302
8 Neural Network Image Analysis 305
8.1 Fundamentals of Neural Networks
306
8.1.1 Human Neurons
306
8.1.2 Artificial Neurons
306
8.2 Neural Network Architecture
307
8.2.1 Feed-Forward Model
309
8.2.2 Backpropagation Networks
311
8.2.3 Self-Organizing Topological Map
313
8.2.4 ART
314
8.2.5 Parallel Consensual Network
316
8.2.6 Binary Diamond Network
317
8.2.7 Structured Neural Network
317
8.2.8 Alternative Models
319
8.3 Network Learning
321
8.3.1 Learning Paradigm
321
8.3.2 Learning Rate
322
8.3.3 Learning Algorithms
323
8.3.4 Transfer Functions
324
8.4 Network Configuration
325
8.4.1 Number of Hidden Layers
326
8.4.2 Number of Hidden Nodes
327
8.5 Network Training
329
8.5.1 General Procedure
329
8.5.2 Size of Training Samples
330
8.5.3 Nature of Training Samples
331
8.5.4 Ease and Speed of Network Training
331
8.5.5 Issues in Network Training
333
8.6 Features of ANN Classifiers
334
8.6.1 Methods of Data Encoding
334
8.6.2 Incorporation of Ancillary Data
335
8.6.3 Standardization of Input Data
336
8.6.4 Strengths and Weaknesses
337
8.7 Parametric or ANN Classifier?
340
8.7.1 Case Study
340
8.7.2 A Comparison
342
8.7.3 Critical Evaluation
343
References
347
9 Decision Tree Image Analysis 351
9.1 Fundamentals of Decision Trees
351
9.2 Types of Decision Trees
353
9.2.1 Univariate Decision Trees
353
9.2.2 Multivariate Decision Trees
355
9.2.3 Hybrid Decision Trees
357
9.2.4 Regression Trees
358
9.3 Construction of Decision Trees
360
9.3.1 Construction Methods
360
9.3.2 Feature Selection
361
9.3.3 An Example
364
9.3.4 Node Splitting Rules
366
9.3.5 Tree Pruning
368
9.3.6 Tree Refinement
370
9.4 Common Trees in Use
371
9.4.1 CART
372
9.4.2 C4.5 and C5.0 Trees
373
9.4.3 M5 Trees
374
9.4.4 QUEST
375
9.5 Decision Tree Classification
376
9.5.1 Accuracy
377
9.5.2 Robustness
379
9.5.3 Strengths
381
9.5.4 Limitations
383
9.5.5 Ensemble Classifiers
383
References
386
10 Spatial Image Analysis 389
10.1 Texture and Image Classification
390
10.1.1 Statistical Texture Quantifiers
392
10.1.2 Texture Based on Gray Tone Spatial Matrix
394
10.1.3 Texture Measures from Fourier Spectra
399
10.1.4 Semivariogram-Based Texture Quantification
399
10.1.5 Comparison of Texture Measures
401
10.1.6 Utility of Texture in Image Classification
402
10.2 Contexture and Image Analysis
406
10.3 Image Segmentation
407
10.3.1 Pixel-Based Segmentation
408
10.3.2 Edge-Based Segmentation
409
10.3.3 Region-Based Segmentation
410
10.3.4 Knowledge-Based Image Segmentation
413
10.3.5 Segmentation Based on Multiple Criteria
415
10.3.6 Multiscale Image Segmentation
419
10.4 Fundamentals of Object-Oriented Classification
420
10.4.1 Rationale
421
10.4.2 Process of Object-Oriented Analysis
423
10.4.3 Implementation Environments
424
10.5 Potential of Object-Oriented Image Analysis
426
10.5.1 A Case Study
426
10.5.2 Performance Relative to Per-Pixel Classifiers
429
10.5.3 Strengths
432
10.5.4 Limitations
434
10.5.5 Affecting Factors
436
References
437
11 Intelligent Image Analysis 443
11.1 Expert Systems
444
11.1.1 General Features
444
11.1.2 Knowledge Base
445
11.1.3 Expert Systems and Image Analysis
447
11.2 Knowledge in Image Classification
449
11.2.1 Type of Knowledge
449
11.2.2 Spectral Knowledge
451
11.2.3 Spatial Knowledge
452
11.2.4 External Knowledge
453
11.2.5 Quality of Knowledge
455
11.2.6 Knowledge Integration
457
11.3 Knowledge Acquisition
458
11.3.1 Acquisition via Domain Experts
458
11.3.2 Acquisition through Machine Learning
459
11.3.3 Acquisition through Remote Sensing and GPS
460
11.4 Knowledge Representation
462
11.4.1 Semantic Network
462
11.4.2 Rule-Based Representation
463
11.4.3 Frames
465
11.4.4 Blackboards
467
11.5 Evidential Reasoning
468
11.5.1 Mathematical Underpinning
468
11.5.2 Evidential Reasoning and Image Classification
471
11.5.3 Utility
472
11.6 Knowledge-Based Image Analysis
473
11.6.1 Knowledge-Based Image Classification
474
11.6.2 Postclassification Filtering
478
11.6.3 A Case Study
479
11.6.4 Postclassification Spatial Reasoning
485
11.7 Critical Evaluation
487
11.7.1 Relative Performance
488
11.7.2 Effectiveness of Spatial Knowledge
489
11.7.3 Strengths
490
11.7.4 Limitations
491
References
493
12 Classification Accuracy Assessment 497
12.1 Precision versus Accuracy
498
12.2 Inaccuracy of Classification Results
500
12.2.1 Image Misclassification
500
12.2.2 Boundary Inaccuracy
501
12.2.3 Inaccuracy of Reference Data
502
12.2.4 Characteristics of Classification Inaccuracy
503
12.3 Procedure of Accuracy Assessment
504
12.3.1 Scale and Procedure of Assessment
505
12.3.2 Selection of Evaluation Pixels
506
12.3.3 Number of Evaluation Pixels
507
12.3.4 Collection of Reference Data
509
12.4 Report of Accuracy
511
12.4.1 Aspatial Accuracy
511
12.4.2 Spatial Accuracy
512
12.4.3 Interpretation of Error Matrix
514
12.4.4 Quantitative Assessment of Error Matrix
518
12.4.5 An Example of Accuracy Assessment
520
12.4.6 Comparison of Error Matrices
521
References
524
13 Multitemporal Image Analysis 525
13.1 Fundamentals of Change Analysis
527
13.1.1 Conceptual Illustration
527
13.1.2 Requirements of Change Analysis
528
13.1.3 Procedure of Change Analysis
529
13.2 Qualitative Change Analysis
530
13.2.1 Visual Overlay
531
13.2.2 Image Compositing
532
13.3 Quantitative Change Analysis
533
13.3.1 Spectral Differencing
534
13.3.2 Spectral Ratioing
535
13.3.3 NDVI-Based Change Analysis
536
13.4 Postclassification Change Analysis
537
13.4.1 Aspatial Change Detection
538
13.4.2 Spatial Change Analysis
540
13.4.3 Raster Implementation
542
13.4.4 Vector Implementation
543
13.4.5 Raster or Vector?
544
13.5 Novel Change Analysis Methods
547
13.5.1 Spectral Temporal Change Classification
547
13.5.2 PCA
547
13.5.3 Change Vector Analysis
548
13.5.4 Correlation-Based Change Analysis
551
13.5.5 A Comparison
552
13.5.6 Change Analysis from Monotemporal Imagery
553
13.6 Accuracy of Change Analysis
554
13.6.1 Factors Affecting Detection Accuracy
555
13.6.2 Evaluation of Detection Accuracy
560
13.7 Visualization of Detected Change
564
References
565
14 Integrated Image Analysis 567
14.1 GIS and Image Analysis
568
14.1.1 GIS Database
568
14.1.2 Vector Mode of Representation
569
14.1.3 Raster Mode of Representation
572
14.1.4 Attribute Data
574
14.1.5 Topological Data
575
14.1.6 GIS Functions
577
14.1.7 Database Query
578
14.1.8 GIS Overlay Functions
581
14.1.9 Errors in Overlay Analysis
586
14.1.10 Relevance of GIS to Image Analysis
588
14.2 GPS and Image Analysis
589
14.2.1 Principles of GPS
589
14.2.2 GPS Accuracy
591
14.2.3 Improvements in GPS Accuracy
593
14.2.4 Relevance of GPS to Image Analysis
596
14.3 Necessity of Integration
598
14.4 Models of Integration
600
14.4.1 Linear Integration
600
14.4.2 Interactive Integration
601
14.4.3 Hierarchical Integration
602
14.4.4 Complex Model of Integration
605
14.4.5 Levels of Integration
606
14.5 Impediments to Integration
607
14.5.1 Format Incompatibility
607
14.5.2 Accuracy Incompatibility
608
14.6 Exemplary Analyses of Integration
609
14.6.1 Image Analysis and GIS
609
14.6.2 Image Analysis and GPS
610
14.6.3 GPS and GIS
611
14.7 Applications of Integrated Approach
611
14.7.1 Resources Management and Environmental Monitoring
612
14.7.2 Emergency Response
613
14.7.3 Mapping and Mobile Mapping
614
14.7.4 Prospect of Integrated Analysis
614
References
616
Index 619
Jay Gao, Ph.D., lectures on geographic information systems at the University of Auckland's School of Geography, Geology, and Environmental Science. He is also the Auckland branch representative on the council for the New Zealand Geographic Society.