Primary Succession and Ecosystem Rehabilitation

Author: Lawrence R. Walker; Roger del Moral  

Publisher: Cambridge University Press‎

Publication year: 2003

E-ISBN: 9780511056956

P-ISBN(Paperback): 9780521800761

Subject: Q14 Biological Ecology (Ecology)

Keyword: 生态学(生物生态学)

Language: ENG

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Primary Succession and Ecosystem Rehabilitation

Description

Natural disturbances such as lava flows, landslides and glacial moraines, and human-damaged sites such as pavement, road edges and mine wastes often leave little or no soil or biological legacy. This 2003 book provided the first comprehensive summary of how plant, animal and microbial communities develop under the harsh conditions following such dramatic disturbances. The authors examine the basic principles that determine ecosystem development and apply the general rules to the urgent practical need for promoting the reclamation of damaged lands. Written for ecologists concerned with disturbance, landscape dynamics, restoration, life histories, invasions, modeling, soil formation and community or population dynamics, this book will also serve as an authoritative text for graduate students and a valuable reference for professionals involved in land management.

Chapter

2.2.2 Air

Hurricanes

Uprooted trees

Dunes

2.2.3 Water

Floodplains

Glaciers

Cold regions

Drought

Marine

2.2.4 Fire

2.2.5 Humans

Erosion

Mining

Urban

Military

Transportation

Other surfaces

2.2.6 Disturbance interactions

2.2.7 Summary of disturbance types

3 Successional theory

3.1 Introduction

3.2 Early observations

3.3 Holism

3.4 Neo-holism

3.5 Phytosociology

3.6 Reductionism

3.7 Neo-reductionism

3.8 Ecosystem assembly

3.9 Models

3.9.1 Verbal models

Autogenic models

Process models

3.9.2 Mathematical models

3.10 New directions

4 Soil development

4.1 Background

4.2 Environmental controls

4.2.1 Climate

4.2.2 Parent material

4.2.3 Topography

4.2.4 Erosion

4.3 Physical and chemical properties

4.3.1 Texture

4.3.2 Compaction

4.3.3 Water content

4.3.4 pH and cations

4.3.5 Nitrogen

4.3.6 Phosphorus

4.4 Soil biota

4.4.1 Plants

4.4.2 Soil microbes

4.4.3 Mycorrhizae

4.4.4 Animals

4.5 Soil processes

4.5.1 Nitrogen fixation

4.5.2 Organic matter

4.6 Spatial patterns

4.7 Summary

5 Life histories of early colonists

5.1 Introduction

5.2 Pre-dispersal considerations

5.2.1 Pollination and seed set

Off-site pollination

On-site pollination

On-site seed production

5.2.2 Seed banks

5.2.3 Vegetative reproduction

5.3 Dispersal

5.3.1 Dispersal parameters

Dispersal models

Empirical studies

5.3.2 Dispersal mechanisms and their consequences

Passive dispersal

Active dispersal by animals

Dispersal of animals

Diffusion

Jump dispersal

Combined dispersal

5.3.3 Barriers

5.3.4 Predictability

Chance and prediction

Habitat size

Habitat stress

Habitat isolation

5.3.5 Dispersal conclusions

5.4 Establishment

5.4.1 Germination

Amelioration

Safe-sites

Stability

5.4.2 Growth

Abiotic conditions

Pre-reproductive growth

Growth to maturity

Growth forms

Biomass accumulation

Functional groups

5.5 Persistence and longevity

5.5.1 Persistence

5.5.2 Longevity

5.6 Successional consequences of dispersal and establishment

5.6.1 Under-saturated early successional communities

5.6.2 Under-saturated late successional communities

5.6.3 Novel species assemblages

5.6.4 Priority effects

5.6.5 Disharmonic communities

5.6.6 Biogeographical effects

5.6.7 Establishment conclusions

6 Species interactions

6.1 Introduction

6.2 Plant–soil and animal–soil interactions

6.2.1 Plant impacts on soils

6.2.2 Animal disturbances

6.3 Interactions among plants

6.3.1 Facilitation

Background

Light

Nutrients

Nurse plants

Successional implications

6.3.2 Inhibition

Background

Light

Nutrients

Thickets

Successional implications

6.4 Interactions between plants and other organisms

6.4.1 Mutualisms

6.4.2 Herbivores

Vertebrates

Invertebrates

6.4.3 Parasitism

6.5 Interactions between animals

6.6 Net effects of interactions

7 Successional patterns

7.1 Types of trajectory

7.1.1 Converging trajectories

Measurement

Assembly

Types of convergence

7.1.2 Diverging trajectories

Local heterogeneity

Subsequent disturbances

Mosaics

7.1.3 Trajectory networks

7.1.4 Parallel trajectories

7.1.5 Deflected trajectories

7.1.6 Cyclic patterns and fluctuations

7.1.7 Retrogressive trajectories

7.1.8 Arrested trajectories

7.1.9 Trajectory summary

7.2 Temporal dynamics

7.2.1 Definitions

7.2.2 Methods of measuring rates

7.3 Changes in biodiversity and biomass

7.3.1 Biodiversity

7.3.2 Stability

7.3.3 Biomass and allocation

7.4 Environmental feedback

7.4.1 Moisture

7.4.2 Temperature

Tropical

Deserts

Boreal forests

Arctic and Antarctic systems

7.4.3 Nutrients

Old-fields

Floodplains

Volcanoes

Dunes

Dune slacks

Glaciers

Decomposition

7.4.4 Salinity

Salt flats

Salt marshes

Mangroves

7.4.5 Landscape factors

7.4.6 Chronic disturbance

Rock outcrops

7.4.7 Pollution

Air

Water

7.5 Summary

8 Applications of theory for rehabilitation

8.1 Theory of rehabilitation ecology

8.1.1 Introduction and definitions

8.1.2 Interdependency between rehabilitation and ecological theory

8.2 Rehabilitation processes

8.2.1 Conceptual framework

8.2.2 Planning

8.3 Implementation

8.3.1 Dispersal

8.3.2 Establishment

8.3.3 Monitoring

8.3.4 Maintenance

8.4 Overcoming adverse conditions

8.4.1 Drought

8.4.2 Hydric conditions

8.4.3 Infertility and toxicity

8.4.4 Salinity

8.4.5 Extreme pH values

8.4.6 Low temperatures

8.4.7 Unstable substrates

8.4.8 Alien plants

8.4.9 Grazing

8.4.10 Air pollution

8.4.11 Overcoming adversity: a summary

8.5 Feedback between theory and practice

8.5.1 Increasing restoration rates

8.5.2 Improving the aim

8.5.3 Enlarging the target

8.5.4 Summary of feedback between theory and practice

8.6 Politics

9 Future directions

9.1 Paradigm shifts

9.2 Development of standard protocols

9.2.1 Permanent plots

9.2.2 Removal experiments

9.2.3 Chronosequence studies

9.3 Questions for the future

9.3.1 The end of succession

9.3.2 Trajectories

9.3.3 Predictions

9.4 Missing data and poorly studied habitats

9.5 Conclusions

Glossary

Illustration credits

References

Index

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