An Introduction to Spatial Data Analysis
Remote Sensing and GIS with Open Source Software
Published on 7. September 2020
Book
Hardback
222 pages
978-1-78427-212-8 (ISBN)
Description
This is a book about how ecologists can integrate remote sensing and GIS in their research. It will allow readers to get started with the application of remote sensing and to understand its potential and limitations. Using practical examples, the book covers all necessary steps from planning field campaigns to deriving ecologically relevant information through remote sensing and modelling of species distributions.
An Introduction to Spatial Data Analysis introduces spatial data handling using the open source software Quantum GIS (QGIS). In addition, readers will be guided through their first steps in the R programming language. The authors explain the fundamentals of spatial data handling and analysis, empowering the reader to turn data acquired in the field into actual spatial data. Readers will learn to process and analyse spatial data of different types and interpret the data and results. After finishing this book, readers will be able to address questions such as "What is the distance to the border of the protected area?", "Which points are located close to a road?", "Which fraction of land cover types exist in my study area?" using different software and techniques.
This book is for novice spatial data users and does not assume any prior knowledge of spatial data itself or practical experience working with such data sets. Readers will likely include student and professional ecologists, geographers and any environmental scientists or practitioners who need to collect, visualize and analyse spatial data.
The software used is the widely applied open source scientific programs QGIS and R. All scripts and data sets used in the book will be provided online at book.ecosens.org.
This book covers specific methods including:
what to consider before collecting in situ data
how to work with spatial data collected in situ
the difference between raster and vector data
how to acquire further vector and raster data
how to create relevant environmental information
how to combine and analyse in situ and remote sensing data
how to create useful maps for field work and presentations
how to use QGIS and R for spatial analysis
how to develop analysis scripts
An Introduction to Spatial Data Analysis introduces spatial data handling using the open source software Quantum GIS (QGIS). In addition, readers will be guided through their first steps in the R programming language. The authors explain the fundamentals of spatial data handling and analysis, empowering the reader to turn data acquired in the field into actual spatial data. Readers will learn to process and analyse spatial data of different types and interpret the data and results. After finishing this book, readers will be able to address questions such as "What is the distance to the border of the protected area?", "Which points are located close to a road?", "Which fraction of land cover types exist in my study area?" using different software and techniques.
This book is for novice spatial data users and does not assume any prior knowledge of spatial data itself or practical experience working with such data sets. Readers will likely include student and professional ecologists, geographers and any environmental scientists or practitioners who need to collect, visualize and analyse spatial data.
The software used is the widely applied open source scientific programs QGIS and R. All scripts and data sets used in the book will be provided online at book.ecosens.org.
This book covers specific methods including:
what to consider before collecting in situ data
how to work with spatial data collected in situ
the difference between raster and vector data
how to acquire further vector and raster data
how to create relevant environmental information
how to combine and analyse in situ and remote sensing data
how to create useful maps for field work and presentations
how to use QGIS and R for spatial analysis
how to develop analysis scripts
More details
Series
Language
English
Place of publication
Exeter
United Kingdom
Target group
Adult education
Professional and scholarly
Product notice
sewn/stitched
Cloth over boards
Illustrations
2 s/w Tabellen, 208 Schaubilder
2 Tables, black and white; 208 Figures
Dimensions
Height: 250 mm
Width: 175 mm
Thickness: 17 mm
Weight
605 gr
ISBN-13
978-1-78427-212-8 (9781784272128)
Copyright in bibliographic data and cover images is held by Nielsen Book Services Limited or by the publishers or by their respective licensors: all rights reserved.
Schweitzer Classification
Other editions
Additional editions
Martin Wegmann | Jakob Schwalb-Willmann | Stefan Dech
An Introduction to Spatial Data Analysis
Remote Sensing and GIS with Open Source Software
Book
09/2020
Pelagic Publishing
€45.00
Shipment within 10-15 days
Persons
Martin Wegmann works on remote sensing for biodiversity and conservation applications at the Department of Remote Sensing, University of Wuerzburg. He also teaches remote sensing within the applied Earth Observation EAGLE M.Sc. program and the AniMove.org science school. He has more than 15 years of experience in working with spatial data for ecological applications using Open Source software.
Jakob Schwalb-Willmann is a scientist at the University of Wuerzburg with an academic background in Earth observation and spatial data science. His research focuses on the machine-learning-driven analysis and exploitation of integrated movement tracking and remote sensing data for geoanalytical applications. He has extensive experience in using and developing Open Source software tools for advanced image and spatial data anaylsis.
Stefan Dech is director of the German Remote Sensing Data Center (DFD) since 1998, and current spokesman of the Earth Observation Center (EOC) at the German Aerospace Center (DLR). Since 2001 he has held the Chair for Remote Sensing at the Institute of Geography and Geology of the University of Wuerzburg.
Jakob Schwalb-Willmann is a scientist at the University of Wuerzburg with an academic background in Earth observation and spatial data science. His research focuses on the machine-learning-driven analysis and exploitation of integrated movement tracking and remote sensing data for geoanalytical applications. He has extensive experience in using and developing Open Source software tools for advanced image and spatial data anaylsis.
Stefan Dech is director of the German Remote Sensing Data Center (DFD) since 1998, and current spokesman of the Earth Observation Center (EOC) at the German Aerospace Center (DLR). Since 2001 he has held the Chair for Remote Sensing at the Institute of Geography and Geology of the University of Wuerzburg.
Content
Preface
1. Introduction and overview
1.1 Spatial data
1.2 First spatial data analysis
1.3 Next steps
Part I.
Data acquisition, data preparation and map creation
2. Data acquisition
2.1 Spatial data for a research question
2.2 AOI
2.3 Thematic raster map acquisition
2.4 Thematic vector map acquisition
2.5 Satellite sensor data acquisition
2.6 Summary and further reading
3. Data preparation
3.1 Deciding on a projection
3.2 Reprojecting raster and vector layers
3.3 Clipping to an AOI
3.4 Stacking raster layers
3.5 Visualizing a raster stack as RGB
3.6 Summary and further reading
4. Creating maps
4.1 Maps in QGIS
4.2 Maps for presentations
4.3 Maps with statistical information
4.4 Common mistakes and recommendations
4.5 Summary and further reading
Part II.
Spatial field data acquisition and auxiliary data
5. Field data planning and preparation
5.1 Field sampling strategies
5.2 From GIS to global positioning system (GPS)
5.3 On-screen digitization
5.4 Summary and further reading6.
Field sampling using a global positioning system (GPS) 97
6.1
GPS in the field 98
6.2
GPX from GPS 101
6.3
Summary 102
7.
From global positioning system (GPS) to geographic information system (GIS) 103
7.1
Joint coordinates and measurement sheet 104
7.2
Separate coordinates and measurement sheet 105
7.3
Point measurement to information 106
7.4
Summary 108
Part III.
Data analysis and new spatial information
8.
Vector data analysis 110
8.1
Percentage area covered 114
8.2
Spatial distances 118
8.3
Summary and further analyses 121
9.
Raster analysis 122
9.1
Spectral landscape indices 122
9.2
Topographic indices 128
9.3
Spectral landscape categories 128
9.4
Summary and further analysis 133
10.
Raster-vector intersection 134
10.1
Point statistics 135
10.2
Zonal statistics 136
10.3
Summary 138
Part IV.
Spatial coding
11.
Introduction to coding 140
11.1
Why use the command line and what is 'R'? 140
11.2
Getting started 142
11.3
Your very first command 142
11.4
Classes of data 144
11.5
Data indexing (subsetting) 145
11.6
Importing and exporting data 147
11.7
Functions 148
11.8
Loops 149
11.9
Scripts 149
11.10
Expanding functionality 150
11.11
Bugs, problems and challenges 151
11.12
Notation 152
11.13
Summary and further reading 15212.
Getting started with spatial coding 153
12.1
Spatial data in R 153
12.2
Importing and exporting data 158
12.3
Modifying spatial data 162
12.4
Downloading spatial data from within R 166
12.5
Organization of spatial analysis scripts 170
12.6
Summary 171
13.
Spatial analysis in R 172
13.1
Vegetation indices 172
13.2
Digital elevation model (DEM) derivatives 174
13.3
Classification 175
13.4
Raster-vector interaction 179
13.5
Calculating and saving aggregated values 182
13.6
Summary and further reading 184
14.
Creating graphs in R 185
14.1
Aggregated environmental information 185
14.2
Non-aggregated environmental information 189
14.3
Finalizing and saving the plot 194
14.4
Summary and further reading 195
15.
Creating maps in R 196
15.1
Vector data 197
15.2
Plotting study area data 202
15.3
Summary and further reading 206
Afterword and acknowledgements 207
References 209
Index 210
1. Introduction and overview
1.1 Spatial data
1.2 First spatial data analysis
1.3 Next steps
Part I.
Data acquisition, data preparation and map creation
2. Data acquisition
2.1 Spatial data for a research question
2.2 AOI
2.3 Thematic raster map acquisition
2.4 Thematic vector map acquisition
2.5 Satellite sensor data acquisition
2.6 Summary and further reading
3. Data preparation
3.1 Deciding on a projection
3.2 Reprojecting raster and vector layers
3.3 Clipping to an AOI
3.4 Stacking raster layers
3.5 Visualizing a raster stack as RGB
3.6 Summary and further reading
4. Creating maps
4.1 Maps in QGIS
4.2 Maps for presentations
4.3 Maps with statistical information
4.4 Common mistakes and recommendations
4.5 Summary and further reading
Part II.
Spatial field data acquisition and auxiliary data
5. Field data planning and preparation
5.1 Field sampling strategies
5.2 From GIS to global positioning system (GPS)
5.3 On-screen digitization
5.4 Summary and further reading6.
Field sampling using a global positioning system (GPS) 97
6.1
GPS in the field 98
6.2
GPX from GPS 101
6.3
Summary 102
7.
From global positioning system (GPS) to geographic information system (GIS) 103
7.1
Joint coordinates and measurement sheet 104
7.2
Separate coordinates and measurement sheet 105
7.3
Point measurement to information 106
7.4
Summary 108
Part III.
Data analysis and new spatial information
8.
Vector data analysis 110
8.1
Percentage area covered 114
8.2
Spatial distances 118
8.3
Summary and further analyses 121
9.
Raster analysis 122
9.1
Spectral landscape indices 122
9.2
Topographic indices 128
9.3
Spectral landscape categories 128
9.4
Summary and further analysis 133
10.
Raster-vector intersection 134
10.1
Point statistics 135
10.2
Zonal statistics 136
10.3
Summary 138
Part IV.
Spatial coding
11.
Introduction to coding 140
11.1
Why use the command line and what is 'R'? 140
11.2
Getting started 142
11.3
Your very first command 142
11.4
Classes of data 144
11.5
Data indexing (subsetting) 145
11.6
Importing and exporting data 147
11.7
Functions 148
11.8
Loops 149
11.9
Scripts 149
11.10
Expanding functionality 150
11.11
Bugs, problems and challenges 151
11.12
Notation 152
11.13
Summary and further reading 15212.
Getting started with spatial coding 153
12.1
Spatial data in R 153
12.2
Importing and exporting data 158
12.3
Modifying spatial data 162
12.4
Downloading spatial data from within R 166
12.5
Organization of spatial analysis scripts 170
12.6
Summary 171
13.
Spatial analysis in R 172
13.1
Vegetation indices 172
13.2
Digital elevation model (DEM) derivatives 174
13.3
Classification 175
13.4
Raster-vector interaction 179
13.5
Calculating and saving aggregated values 182
13.6
Summary and further reading 184
14.
Creating graphs in R 185
14.1
Aggregated environmental information 185
14.2
Non-aggregated environmental information 189
14.3
Finalizing and saving the plot 194
14.4
Summary and further reading 195
15.
Creating maps in R 196
15.1
Vector data 197
15.2
Plotting study area data 202
15.3
Summary and further reading 206
Afterword and acknowledgements 207
References 209
Index 210