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气候变暖对森林草本植物群落影响的生态偶然性。

Ecological contingency in the effects of climatic warming on forest herb communities.

机构信息

Department of Environmental Science and Policy, University of California, Davis, CA 95616, USA.

出版信息

Proc Natl Acad Sci U S A. 2010 Nov 9;107(45):19362-7. doi: 10.1073/pnas.1006823107. Epub 2010 Oct 25.

Abstract

Downscaling from the predictions of general climate models is critical to current strategies for mitigating species loss caused by climate change. A key impediment to this downscaling is that we lack a fully developed understanding of how variation in physical, biological, or land-use characteristics mediates the effects of climate change on ecological communities within regions. We analyzed change in understory herb communities over a 60-y period (1949/1951-2007/2009) in a complex montane landscape (the Siskiyou Mountains, Oregon) where mean temperatures have increased 2 °C since 1948, similar to projections for other terrestrial communities. Our 185 sites included primary and secondary-growth lower montane forests (500-1.200 m above sea level) and primary upper montane to subalpine forests (1,500-2,100 m above sea level). In lower montane forests, regardless of land-use history, we found multiple herb-community changes consistent with an effectively drier climate, including lower mean specific leaf area, lower relative cover by species of northern biogeographic affinity, and greater compositional resemblance to communities in southerly topographic positions. At higher elevations we found qualitatively different and more modest changes, including increases in herbs of northern biogeographic affinity and in forest canopy cover. Our results provide community-level validation of predicted nonlinearities in climate change effects.

摘要

从一般气候模型的预测结果进行下推对于当前缓解气候变化导致物种丧失的策略至关重要。这一下推的一个关键障碍是,我们缺乏对物理、生物或土地利用特征变化如何调节气候变化对区域内生态群落影响的充分理解。我们分析了在一个复杂的山地景观(俄勒冈州的西斯基尤山脉)中,林下草本群落在 60 年期间(1949/1951-2007/2009 年)的变化情况,该地区自 1948 年以来平均气温升高了 2°C,与其他陆地群落的预测相似。我们的 185 个地点包括原始和次生低山区森林(海拔 500-1200 米)和原始高山区至亚高山森林(海拔 1500-2100 米)。在低山区森林中,无论土地利用历史如何,我们发现了多种与气候更加干燥相一致的草本群落变化,包括平均比叶面积降低、具有北方生物地理亲缘关系的物种相对覆盖率降低以及与南部地形位置的群落组成相似性增加。在较高海拔地区,我们发现了性质不同但更为适度的变化,包括北方生物地理亲缘关系的草本植物和森林冠层覆盖的增加。我们的结果提供了对气候变化影响的预测非线性的群落水平验证。

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