Applied Landscape Ecology

 
 
Standards Information Network (Verlag)
  • 1. Auflage
  • |
  • erschienen am 26. November 2018
  • |
  • 288 Seiten
 
E-Book | ePUB mit Adobe-DRM | Systemvoraussetzungen
978-1-119-36822-9 (ISBN)
 
An insightful guide to the concepts and practices of modern landscape ecology

Elements of geography, conservation biology, soil science and other disciplines factor into landscape ecology's rich analyses of the ecological and environmental forces at play across different terrains. With its unique, organism-oriented approach to the subject, Applied Landscape Ecology considers the effects of ecological processes upon particular species and places its findings within the context of larger-scale concerns. Students, researchers, and practitioners alike will find this a rewarding and instructive read that offers practical and detailed information on the latest methods and technologies used in the field today.

This essential resource:



Takes an interdisciplinary approach to landscape ecology
Examines the subject within the contexts of specific organisms
Covers cutting-edge technologies and methods
Represents a collaboration between an international team of landscape ecology experts

Whether new to the practice or an established ecologist, anyone with an interest in this exciting and developing field should have a copy of Applied Landscape Ecology at their disposal.
1. Auflage
  • Englisch
  • USA
John Wiley & Sons Inc
  • Für Beruf und Forschung
  • Reflowable
  • 49,39 MB
978-1-119-36822-9 (9781119368229)

weitere Ausgaben werden ermittelt
Francisco Castro Rego, Professor of Landscape Ecology, Centre for Applied Ecology "Prof. Baeta Neves", InBio and School of Agriculture, University of Lisbon, Lisbon, Portugal

Stephen C. Bunting, Emeritus Professor of Landscape and Rangeland Ecology, College of Natural Resources, University of Idaho, Moscow, ID, USA

Eva Kristina Strand, Professor of Landscape Ecology, College of Natural Resources, University of Idaho, Moscow, ID, USA

Paulo Godinho-Ferreira, Senior Researcher of Landscape Ecology, Centre for Applied Ecology "Prof. Baeta Neves", InBio and Institute for Agrarian and Veterinarian Research, Lisbon, Portugal
Foreword xi

Preface xiii

1 Concepts and Approaches in Landscape Ecology 1

1.1 The Historical Development of Landscape Ecology as a Science 1

1.2 Hierarchical Levels in Ecology 6

1.3 The Spatial Hierarchy of Land 7

1.4 Fundamental Concepts: Landscape Scale and Size, Pattern, Process, and Change 9

1.5 The Representation of the Landscape and its Elements 13

Key Points 20

Endnotes 20

2 Points as Landscape Elements 25

2.1 The Different Patterns 25

2.2 Distance Methods to Detect Pattern 29

2.3 Quadrat Analysis to Detect Pattern 31

2.4 Consideration of Scale in Nearest-Neighbor Analyses 35

2.5 Consideration of Scale in Quadrat Analyses 40

Key Points 44

Endnotes 44

3 Linear Elements and Networks 47

3.1 The Linear Features and Corridors in the Landscape 47

3.2 Curvilinearity and Fractal Analysis 50

3.3 Linear Density of Networks 57

3.4 Spatial Distribution of Linear Networks 60

3.5 Analysis of the Spatial Distribution of Linear Networks 62

3.6 A Study of Linear Features on the European Scale 65

3.7 The Topology of the Networks 66

3.8 Network Connectivity 68

3.9 Connectivity Indices Based on Topological Distances between Patches (Nodes) 72

Key Points 77

Endnotes 78

4 Patches and Their Interactions 81

4.1 The Importance of Patch Size for Species Diversity 81

4.2 The Importance of Patch Edge and Shape 86

4.3 The Measurement of Patch Size and Perimeter 88

4.4 Quantifying Patch Shape 90

4.5 An Example for the Use of Perimeter-Area Relationships 92

4.6 Patch Interior and Edge 94

4.7 Interaction between Patches and the Theory of Island Biogeography 99

4.8 Interaction between Patches and Populations: The Concept of Metapopulation 102

4.9 Estimating the Interaction between Patches by the Distance and Size of Neighbors 104

4.10 An Example of the Use of the Gravity Model 108

Key Points 111

Endnotes 111

5 The Vertical Dimension of Landscapes 115

5.1 The Importance of Elevation Illustrated for Birds in the Macaronesian Islands 115

5.2 Montane Islands 120

5.3 The Vertical Dimension in Aquatic Systems 122

5.4 The Vertical Structure of Vegetation and Species Diversity 122

Key Points 126

Endnotes 126

6 Movements through Landscapes 129

6.1 Percolation Theory 129

6.2 Contagion Analysis and Percolation 133

6.3 Resistance Surfaces 137

6.4 Example of Percolation Movements through Landscapes 140

Key Points 142

Endnotes 143

7 Landscape Composition, Diversity, and Habitat Selection 145

7.1 Measurements of Diversity 145

7.2 Species Diversity of Habitats and Landscapes 150

7.3 The Habitat Use Diversity of a Species 155

7.4 The Relationship between the Species Diversity of a Landscape and the Habitat Use Diversity of the Species 157

7.5 Habitat Selection 161

7.6 Landscape Composition and Diversity 169

Key Points 170

Endnotes 171

8 Landscape Pattern: Composition and Configuration 173

8.1 Composition and Configuration Represent Different Aspects of Landscapes 173

8.2 Configuration Assessed by Patch Numbers, Sizes, Perimeters, and Shapes 175

8.3 Edge Contrast 178

8.4 Configuration Assessed by Types of Cell Adjacencies 181

8.5 Combination of Landscape Pattern Indices 186

8.6 Example of Uses of Pattern and Configuration Metrics to Compare Landscapes 189

Key Points 191

Endnotes 191

9 Landscape Dynamics 193

9.1 The Dynamic Nature of Landscapes: Disturbances and Equilibrium 193

9.2 The Two-State Landscapes 195

9.3 Rotating Landscapes 198

9.4 Indices for the Dynamics and Randomness of Landscape Changes 202

9.5 Measuring the Complexity of Landscape Change 204

9.6 Simulating Changes in Landscape Composition 206

9.7 Conditional Landscape Changes 211

Key Points 216

Endnotes 217

10 From Landscape Ecology to Landscape Management 219

10.1 Natural Processes and Landscape Management 219

10.2 Transition Matrices as the Mathematical Framework 223

10.3 Management of Landscape Composition and the Transition Matrix Model 226

10.4 The Use of Transition Matrices to Incorporate Changes in Disturbance Regimes and/or Management Activities 228

10.5 Combining Spatial and Temporal Analysis in Transition Models 238

Key Points 252

Endnotes 252

Appendix A Description of Notation Used in Formulae and Metrics 255

Index 263

1
Concepts and Approaches in Landscape Ecology


1.1 The Historical Development of Landscape Ecology as a Science


Ecology as a written science probably has its known beginnings in ancient Greece with Aristotle and particularly with his successor, Theophrastus, who was one of the first philosophers to study "the relationships between the organisms and their environment". This definition of the term Ecology that was first used two millennia later by the German zoologist Ernst Haeckel, who, in 1866, associated the Greek words Oikos (house) and Logos (science) (Figure 1.1).

Figure 1.1 The Greek philosopher Theophrastus (371-287 BC) (left) and the German ecologist Ernst Haeckel (1834-1919?AC) (right).

Source: https://upload.wikimedia.org/wikipedia/commons/3/38/Theophrastus._Line_engraving._Wellcome_V0005785.jpg, https://upload.wikimedia.org/wikipedia/commons/2/2f/Ernst _Haeckel_2.jpg (3 December 2017).

Haeckel further expanded the definition of Ecology in his writings in 18691: "By ecology we mean the body of knowledge concerning the economy of nature, the investigation of the total relations of the animal both to its inorganic and to its organic environment; including above all, its friendly and inimical relations with those animals and plants with which it comes directly or indirectly into contact."

Other subdisciplines of ecology focus on the study of the distribution and abundance of individuals of the same species (population ecology)2, on the interaction between populations (community ecology)3, or, especially after the very influential book published in 1953 by Eugene Odum4, on the study of ecosystems (systems ecology). Ecology has expanded from populations to communities and ecosystems, and more recently to landscape scales.

The English word "landscape" first appeared in the late sixteenth century when the term landschap was introduced by Dutch painters who used it to refer to paintings whose primary subject matter was natural scenery, associating the word "land" (of Germanic origin) and the suffix "schaft" or "scape", meaning shape5 (Figure 1.2).

Figure 1.2 Landscape painting of Richmond castle (1639) by the Dutch landscape painter Alexander Keirincx (1600-1652).

Source: Yale Center for British Art, Paul Mellon Collection: Netherlandish Painters Active in Britain in the Sixteenth and Seventeenth Centuries, http://ezine.codart.nl/17/issue/46/artikel/netherlandish-painters-active-in-britain-in-the-16th-and-17th-centuries/?id=191 (17 February 2017).

In the seventeenth and eighteenth centuries, "landscape" continued to be associated with paintings, but a new meaning of the term developed when Alexander von Humboldt (1769-1857) started the new science of plant geography. Humboldt explored the visual qualities of painted landscapes transforming the concept of landscape from its primary visual meaning into an abstract entity by finding its ecological unity6 (Figure 1.3). The concept of landscape was moving from art to ecological science.

Figure 1.3 Painting of the German naturalist Alexander von Humboldt (1769-1859) (left) and photo of the German geographer Carl Troll (1899-1975) (right). https://en.wikipedia.org/wiki/Alexander_von_Humboldt#/media/File:Alexandre_humboldt.jpg, https://de.wikipedia.org/wiki/Carl_Troll (17 February 2017).

Source: Portrait of Alexander von Humboldt by Friedrich Georg Weitsch, 1806,

Following the work of Humboldt, it was another German geographer, Carl Troll, who first coined in 19397 the term "landscape ecology" hoping that a new science could be developed that integrated the spatial approach of geographers and the functional approach of ecologists (Figure 1.3).

However, the science of landscape ecology would be one of the latest forms of ecology to develop. It was not until the 1980s that the concept was more widely developed and works on landscape ecology started to be produced in Europe and in North America with the books by Vink (1983)8, Naveh and Lieberman (1984)9, and Forman and Godron (1986)10. After the publication of this latter book, which is now considered to be a main foundation of this science, references to landscape ecology started to become common in scientific literature and further developed after the beginning of the publication of the scientific journal of Landscape Ecology in 1987.

After that initial period, landscape ecology studies also became common in other basic and applied ecological journals. The development of landscape ecology was rapid and several important books were produced after the 1980s. In 1995 Forman published his comprehensive award-winning book Land Mosaics: The Ecology of Landscapes and Regions11 (Figure 1.4).

Figure 1.4 The USA scientist Richard Forman (born 1935) with two of his fundamental books in Landscape Ecology.

Source: Harvard University, Graduate School of Design, http://www.gsd.harvard.edu/person/richard-t-t-forman/ (2 May 2017).

Since 1995 several other books have been published by various authors in both Europe and North America, as in the Netherlands by Zonneveld (1995)12, in Italy by Farina (1998)13 and by Ingegnoli (2002)14, in France by Burel and Baudry (1999)15, in the United States by Turner, Gardner, and O´Neill (2001)16, by Coulson and Tchakerian (2010)17, and by Forman, again, with others, on Road Ecology: Science and Solutions (2003)18 and on Urban Ecology: Science of Cities (2014)19.

Also, many edited books with applications of landscape ecology analyses were published since the late 1980s, such as those by Turner (1987)20, Turner and Gardner (1991)21, Bissonette (1997)22, Klopatek and Gardner (1999)23, Sanderson and Harris (2000)24, Wiens, Moss, Turner, and Mladenoff (2006)25, Wu and Hobbs (2007)26, McKenzie, Miller, and Falk (2011)27, and Perera, Drew, and Johnson (2012)28.

Landscape ecology was definitely settled as a new science and several books were published on the corresponding quantitative methods, as that in the Netherlands by Jongman, ter Brak, and van Tongeren (1995)29 on data analysis in community and landscape ecology. A major development of analytical methods used in landscape ecology came in 1995 with the release of the FRAGSTATS software in association with the publication of a very useful USDA Forest Service General Technical Report by McGarigal and Marks30. Due to its popularity the program has been updated and recently upgraded to accommodate ArcGIS10 (version 3.4) and it has been central to other books for quantifying and measuring landscape characteristics, such as that of Leitão, Miller, Ahern, and McGarigal (2006)31. From this perspective, it is also important to recognize the book edited by Gergel and Turner (2002)32 covering many of the quantitative methods in landscape ecology.

During the last decades the science of landscape ecology developed with input from new technologies (Figure 1.5) and contributions from many other disciplines such as geology, soil science, plant ecology, wildlife ecology, conservation biology, genetics, human ecology, urban ecology, and landscape architecture. In addition, landscape ecology was enhanced by the rapid advancement of computer sciences, remote sensing, geographic information system technologies, and landscape modeling. Remote sensing images obtained from satellite platforms displaying features of the Earth's surface first became available in the latter half of the twentieth century. Finally, landscape ecologists were able to view landscape patterns over large land areas and it became increasingly feasible to quantify change in both spatial and temporal dimensions. Currently the landscape ecology perspective is essential in addressing broad-scale complex issues such as those associated with global change.

For example, the Landsat satellites have been collecting multispectral images at 15-80?m resolution since the 1970s at a 16-day interval and the moderate-resolution imaging spectroradiometers (MODISs) have been collecting 250-1000?m resolution images every 1-2 days since 2002. Technological advancement has also been made in data collection at very fine spatial scales. Light detection and ranging (LiDAR) is a technique with the ability to map objects in three dimensions by measuring the time it takes for a laser signal to travel from the sensor to the object and back to the sensor. Sensors mounted on unmanned aircraft systems (UASs) can provide images with subcentimeter resolutions.

Figure 1.5 The top image is a LiDAR acquisition of hundreds of conifer trees. The lower left image shows the branching structure of a tree and the lower right image is a synoptic view of one complete 360 degree scan of a mixed conifer forest near Moscow, Idaho, USA. The images were taken with a Leica green terrestrial laser scanner. Colors correspond to the relative return intensity of the LiDAR instrument, with greens and yellows showing...

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