Science-Driven Management of Protected Areas: A Philippine Case Study

被引:0
|
作者
Neil Aldrin D. Mallari
Nigel J. Collar
Philip J. K. McGowan
Stuart J. Marsden
机构
[1] Fauna and Flora International,Department of Environmental and Geographical Sciences
[2] BirdLife International,undefined
[3] World Pheasant Association,undefined
[4] Applied Ecology Group,undefined
[5] Manchester Metropolitan University,undefined
[6] School of Biology,undefined
[7] Newcastle University,undefined
来源
Environmental Management | 2013年 / 51卷
关键词
Bird population densities; Habitat classes; Land cover change; Management planning; Puerto Princesa Subterranean River National Park; Quantitative baseline;
D O I
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中图分类号
学科分类号
摘要
The lack of scientific baseline information hinders appropriate design and management of protected areas. To illustrate the value of science to management, we consider five scenarios for the 202.0 km² Puerto Princesa Subterranean River National Park, Philippines: (1) closure to human activities, (2) and (3) two levels of increase in unplanned human activities, (4) creation of a forest corridor and (5) additional allocation of land for permanent or shifting agriculture. We then use habitat-specific bird density estimates to simulate the net effect of each scenario on 18 focal bird populations. Closure has significant benefits—populations of five species are predicted to increase by >50 % and nine by >25 %, but two secondary forest flycatchers, including the endemic and ‘Vulnerable’ Palawan flycatcher, decline dramatically, while the creation of a 4.0 km² forest corridor yields average increases across species of 2 ± 4 % (SD). In contrast, heavier unplanned park usage produces declines in all but a few species, while the negative effects of an extra 2.0 km² of shifting cultivation are 3–5 times higher than for a similar area of permanent agriculture and affect species whose densities are highest in primary habitats. Relatively small changes within the park, especially those associated with agricultural expansion, has serious predicted implications for local bird populations. Our models do not take into account the full complexities of bird ecology at a site, but they do provide park managers with an evidence base from which to make better decisions relating to biodiversity conservation obligations which their parks are intended to meet.
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页码:1236 / 1246
页数:10
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