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9780878930289

Applied Population Ecology

by ; ;
  • ISBN13:

    9780878930289

  • ISBN10:

    0878930280

  • Edition: 2nd
  • Format: Paperback
  • Copyright: 1999-06-01
  • Publisher: Sinauer Associates Inc
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List Price: $41.95

Table of Contents

Foreword x
Robert Goldstein
Foreword xi
Mark Shaffer
Preface xii
Acknowledgments xiv
Population Growth
1(32)
Introduction
1(6)
Definition of a Population
2(1)
Limits to Survival and Reproduction: Niche and Habitat
2(3)
Mathematical Models in Population Ecology
5(2)
Births and deaths, immigrants and emigrants
7(7)
Exponential Growth
8(1)
Long-lived Species
9(1)
Using the Model
10(2)
Doubling Time
12(1)
Migration, Harvesting, and Translocation
13(1)
Assumptions of the exponential growth model
14(2)
Applications
16(10)
Human Population Growth
16(5)
Explosions of Pest Densities
21(2)
Exponential Decline
23(3)
Additional topic
26(1)
Population Growth in Continuous Time
26(1)
Exercises
27(4)
Blue Whale Recovery
27(1)
Human Population, 1800-1995
28(2)
Human Population, 1995-2035
30(1)
Further reading
31(2)
Variation
33(38)
Introduction
33(4)
Vocabulary for Population Dynamics and Variability
34(2)
Variation and Uncertainty
36(1)
Kinds of Uncertainly
36(1)
Natural variation
37(17)
Individual Variation
37(1)
Demographic Stochasticity
38(7)
Environmental Variation
45(9)
Parameter and model uncertainty
54(4)
Parameter Uncertainty
54(1)
Model Uncertainty
55(1)
Sensitivity Analysis
56(2)
Ambiguity and ignorance
58(1)
Additional topics
59(2)
Time to Extinction
59(1)
Estimating Variation
60(1)
Exercises
61(8)
Accounting For Demographic Stochasticity
61(1)
Building a Model of Muskox
62(2)
Constructing Risk Curves
64(3)
Sensitivity Analysis
67(2)
Further reading
69(2)
Population Regulation
71(34)
Introduction
71(1)
Effects of crowding
72(4)
Increased Mortality
72(1)
Decreased Reproduction
73(1)
Self-thinning
74(1)
Territories
75(1)
Types of density dependence
76(15)
Scramble Competition
77(6)
Contest Competition
83(2)
Ceiling Model
85(1)
Allee Effects
86(3)
The Concept of Carrying Capacity
89(1)
Carrying Capacity for the Human Population
90(1)
Assumptions of density-dependent models
91(1)
Cycles and chaos
91(1)
Harvesting and density dependence
92(2)
Adding Environmental variation
94(1)
Additional topics
95(3)
Equations
95(2)
Estimating Density Dependence Parameters
97(1)
Exercises
98(6)
Gause's Experiment with Paramecium
98(1)
Adding Stochasticity to Density Dependence
99(1)
Exploring Differences Between Density Dependence Types
100(1)
Demonstrating Chaos
101(1)
Density Dependence and Harvesting
102(2)
Density Independence Graphs
104(1)
Further reading
104(1)
Age Structure
105(52)
Introduction
105(2)
Assumptions of age-structured models
107(1)
An age-structured model for the Helmeted Honeyeater
108(5)
Survival Rates
109(2)
Fecundities
111(2)
Sex Ratio
113(1)
The Leslie matrix
113(10)
Leslie Matrix for Helmeted Honeyeaters
115(2)
Projection with the Leslie Matrix
117(2)
Stable Age Distribution
119(2)
Reproductive Value
121(2)
Adding Stochasticity
123(4)
Demographic Stochasticity
123(2)
Environmental Stochasticity
125(2)
Life Tables
127(6)
The Survivorship Schedule
128(2)
The Maternity (Fertility) Schedule
130(1)
Life History Parameters
131(1)
Life Table Assumptions
132(1)
Additional topics
133(10)
Estimating Survivals and Fecundities
133(3)
Estimating a Leslie Matrix from a Life Table
136(5)
Estimating Variation
141(2)
Exercises
143(12)
Building the Helmeted Honeyeater Model
144(4)
Human Demography
148(1)
Leslie Matrix for Brook Trout
149(3)
Fishery Management
152(3)
Further reading
155(2)
Stage Structure
157(26)
Introduction
157(1)
Assumptions of stage-structured models
158(1)
Stage structure based on size
159(2)
A stage model for an Alder
161(2)
Building stage-structured models
163(5)
Residence Times, Stable Distribution, and Reproductive Value
165(1)
Constraints
166(1)
Adding Density Dependence
167(1)
Sensitivity analysis
168(3)
Planning Field Research
168(2)
Evaluating Management Options
170(1)
Additional topic
171(3)
Estimation of Stage Matrix
171(3)
Exercises
174(7)
Reverse Transitions
174(1)
Modeling a Perennial Plant
174(2)
Sea Turtle Conservation
176(2)
Sensitivity Analysis
178(3)
Further reading
181(2)
Metapopulations and Spatial Structure
183(30)
Introduction
183(7)
Spatial Heterogeneity
185(1)
Habitat Loss and Fragmentation
186(1)
Island Biogeography
187(3)
Metapopulation dynamics
190(9)
Geographic Configuration
191(1)
Spatial Correlation of Environmental Variation
191(2)
Dispersal Patterns
193(3)
Interaction Between Dispersal and Correlation
196(1)
Assumptions of Metapopulation Models
197(2)
Applications
199(4)
Reintroduction and Translocation
200(1)
Corridors and Reserve Design
201(1)
Impact Assessment: Fragmentation
202(1)
Exercises
203(9)
An Overview of the Program
203(2)
Spatial Factors and Extinction Risks
205(4)
Habitat Loss
209(1)
Designing Reserves for the Spotted Owl
210(2)
Further reading
212(1)
Population Viability Analysis
213(28)
Introduction
213(1)
Extinction
214(10)
Extinction in Geological Time
215(1)
Current Extinction Rates
216(4)
The Causes of Extinction
220(2)
Classification of Threat
222(2)
Components of population viability analysis
224(8)
Identification of the Question and Estimation of Parameters
224(4)
Modeling, Risk Assessment, Sensitivity Analysis
228(1)
Cost-benefit Analysis
228(3)
Implementation, Monitoring, Evaluation
231(1)
The limits of population viability analysis
232(2)
Exercises
234(6)
Habitat Management for Gnatcatchers
234(2)
Comparing Management Options
236(2)
Habitat Loss and Fragmentation
238(2)
Further reading
240(1)
Decision-making and Natural Resource Management
241(26)
Introduction
241(1)
Detecting impact
242(6)
Power, Importance, and Significance: An Example
244(3)
The Precautionary Principle
247(1)
Managing natural resources
248(6)
Predicting the Outcome
248(1)
Explaining the Uncertainty
249(3)
Model Uncertainty: The Importance of Detail
252(1)
Strategies and Contingencies
253(1)
The economic and ecological contexts of natural resource management
254(5)
Uncertainty and Sustainability
256(1)
The Role of Applied Population Ecologists
257(2)
Exercises
259(6)
Statistical Power and Environmental Detection
259(2)
Sustainable Catch Revisited
261(2)
Sustainable Use
263(2)
Further reading
265(2)
Appendix: RAMAS EcoLab Installation and Use 267(6)
References 273(8)
Index 281

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