Cooke Steven J, Sack Lawren, Franklin Craig E, Farrell Anthony P, Beardall John, Wikelski Martin, Chown Steven L
Fish Ecology and Conservation Physiology Laboratory, Department of Biology and Institute of Environmental Science, Carleton University, 1125 Colonel By Drive, Ottawa, ON, Canada K1S 5B6.
Department of Ecology and Evolution, University of California Los Angeles, 621 Charles E. Young Drive South, Los Angeles, CA 90095, USA.
Conserv Physiol. 2013 Mar 13;1(1):cot001. doi: 10.1093/conphys/cot001. eCollection 2013.
Globally, ecosystems and their constituent flora and fauna face the localized and broad-scale influence of human activities. Conservation practitioners and environmental managers struggle to identify and mitigate threats, reverse species declines, restore degraded ecosystems, and manage natural resources sustainably. Scientific research and evidence are increasingly regarded as the foundation for new regulations, conservation actions, and management interventions. Conservation biologists and managers have traditionally focused on the characteristics (e.g. abundance, structure, trends) of populations, species, communities, and ecosystems, and simple indicators of the responses to environmental perturbations and other human activities. However, an understanding of the specific mechanisms underlying conservation problems is becoming increasingly important for decision-making, in part because physiological tools and knowledge are especially useful for developing cause-and-effect relationships, and for identifying the optimal range of habitats and stressor thresholds for different organisms. When physiological knowledge is incorporated into ecological models, it can improve predictions of organism responses to environmental change and provide tools to support management decisions. Without such knowledge, we may be left with simple associations. 'Conservation physiology' has been defined previously with a focus on vertebrates, but here we redefine the concept universally, for application to the diversity of taxa from microbes to plants, to animals, and to natural resources. We also consider 'physiology' in the broadest possible terms; i.e. how an organism functions, and any associated mechanisms, from development to bioenergetics, to environmental interactions, through to fitness. Moreover, we consider conservation physiology to include a wide range of applications beyond assisting imperiled populations, and include, for example, the eradication of invasive species, refinement of resource management strategies to minimize impacts, and evaluation of restoration plans. This concept of conservation physiology emphasizes the basis, importance, and ecological relevance of physiological diversity at a variety of scales. Real advances in conservation and resource management require integration and inter-disciplinarity. Conservation physiology and its suite of tools and concepts is a key part of the evidence base needed to address pressing environmental challenges.
在全球范围内,生态系统及其动植物组成部分面临着人类活动的局部和广泛影响。保护从业者和环境管理者努力识别和减轻威胁、扭转物种数量下降趋势、恢复退化的生态系统并可持续地管理自然资源。科学研究和证据越来越被视为新法规、保护行动和管理干预措施的基础。传统上,保护生物学家和管理者关注种群、物种、群落和生态系统的特征(如丰度、结构、趋势)以及对环境扰动和其他人类活动的反应的简单指标。然而,了解保护问题背后的具体机制对于决策变得越来越重要,部分原因是生理工具和知识对于建立因果关系以及确定不同生物体的最佳栖息地范围和应激源阈值特别有用。当生理知识被纳入生态模型时,它可以改善对生物体对环境变化反应的预测,并提供支持管理决策的工具。没有这些知识,我们可能只剩下简单的关联。“保护生理学”此前的定义主要侧重于脊椎动物,但在此我们对这一概念进行全面重新定义,以便应用于从微生物到植物、动物以及自然资源等各类生物分类群。我们还从最广泛的意义上考虑“生理学”,即生物体如何运作以及任何相关机制,从发育到生物能量学,再到环境相互作用,直至适应性。此外,我们认为保护生理学的应用范围广泛,不仅仅局限于帮助濒危种群,还包括例如根除入侵物种、优化资源管理策略以尽量减少影响以及评估恢复计划等。保护生理学这一概念强调了生理多样性在各种尺度上的基础、重要性和生态相关性。保护和资源管理方面的真正进展需要整合和跨学科性。保护生理学及其一系列工具和概念是应对紧迫环境挑战所需证据基础的关键部分。