Abstract

We have proposed a framework for transforming landscapes to improve performance by integrating ecological principles into landscape design. This effort would focus on the development of multifunctional landscapes, guided by the rapidly growing knowledge base of ecosystem services provided by landscape features. Although the conventional approach to landscape ecology is based on a model that assumes poor ecological quality in the human-dominated matrix, a review of recent literature reveals important opportunities to improve the quality of the landscape matrix by increasing spatial heterogeneity through the addition of seminatural landscape elements designed to provide multiple ecosystem services. Taken alone, these individual elements might not appear to have a large impact on the environment, but when considered together within the entire landscape, the contribution could be significant, particularly when these elements are intentionally designed to improve landscape performance. Previous attention has focused on the value of large patches of native vegetation for conservation efforts. These efforts have included preserving those areas that still remain, restoring those that once existed, and providing connectivity between them. But great opportunities exist to improve the quality of the matrix by designing multifunctional elements throughout the landscape. Through a synthesis of knowledge in landscape architecture and landscape ecology, we have demonstrated some important applications of the landscape performance framework in urban and agricultural settings. Based on a review of the literature, we have suggested several methods of evaluating and monitoring landscape performance to determine the relative success of a designed landscape.

Highlights

  • According to the U.S Census Bureau (2008), global population exceeded 6 billion in 2000, and is expected to reach 9 billion by 2050

  • The conventional approach to landscape ecology is based on a model that assumes poor ecological quality in the human-dominated matrix, a review of recent literature reveals important opportunities to improve the quality of the landscape matrix by increasing spatial heterogeneity through the addition of seminatural landscape elements designed to provide multiple ecosystem services

  • These individual elements might not appear to have a large impact on the environment, but when considered together within the entire landscape, the contribution could be significant, when these elements are intentionally designed to improve landscape performance

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Summary

INTRODUCTION

According to the U.S Census Bureau (2008), global population exceeded 6 billion in 2000, and is expected to reach 9 billion by 2050. Conventional knowledge suggests that the growing global population will require more land on which to live and produce food for survival, and that this land requirement will come at the expense of native ecosystems as they are converted to cropland or urban living spaces (anthropogenic landscapes) This pattern has been observed in many cultures during various time periods throughout history. We suggest that a focus on multifunctionality of the landscape could help bridge this gap by offering specific design guidelines based on the goal of achieving ecological, cultural, and production functions within a given space This approach could be applied to both agricultural and urban spaces, even combining the functions of living and producing food in the same landscape. It is both urban and agricultural landscapes that will fulfill the world's increasing demand for resources

LANDSCAPE ECOLOGY CONCEPTS
Ecosystem services
Landscape multifunctionality
Landscape Structure
LANDSCAPE FEATURES SUPPORTING ECOLOGICAL PRINCIPLES
Vegetative Buffers
Ecosystem Services
Natural and Constructed Wetlands
Edible Gardens
Stormwater Infiltration Systems
Waste Treatment Systems
LANDSCAPE APPLICATIONS AND OPPORTUNITIES
Residential yards
Public Green Spaces
Transportation Infrastructure
Built Structures
LANDSCAPE ANALYSIS
Comparative Analysis
Adaptive Experimentation
Landscape Scenarios
CONCLUSION
Findings
LITERATURE CITED
Full Text
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