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将环境营养富集与人类和野生动物疾病的出现联系起来。

Linking environmental nutrient enrichment and disease emergence in humans and wildlife.

机构信息

Ecology and Evolutionary Biology, University of Colorado, Ramaley N122, Campus Box 334, Boulder, Colorado 80309, USA.

出版信息

Ecol Appl. 2010 Jan;20(1):16-29. doi: 10.1890/08-0633.1.

Abstract

Worldwide increases in human and wildlife diseases have challenged ecologists to understand how large-scale environmental changes affect host-parasite interactions. One of the most profound changes to Earth's ecosystems is the alteration of global nutrient cycles, including those of phosphorus (P) and especially nitrogen (N). Along with the obvious direct benefits of nutrient application for food production, anthropogenic inputs of N and P can indirectly affect the abundance of infectious and noninfectious pathogens. The mechanisms underpinning observed correlations, however, and how such patterns vary with disease type, have long remained conjectural. Here, we highlight recent experimental advances to critically evaluate the relationship between environmental nutrient enrichment and disease. Given the interrelated nature of human and wildlife disease emergence, we include a broad range of human and wildlife examples from terrestrial, marine, and freshwater ecosystems. We examine the consequences of nutrient pollution on directly transmitted, vector-borne, complex life cycle, and noninfectious pathogens, including West Nile virus, malaria, harmful algal blooms, coral reef diseases, and amphibian malformations. Our synthetic examination suggests that the effects of environmental nutrient enrichment on disease are complex and multifaceted, varying with the type of pathogen, host species and condition, attributes of the ecosystem, and the degree of enrichment; some pathogens increase in abundance whereas others decline or disappear. Nevertheless, available evidence indicates that ecological changes associated with nutrient enrichment often exacerbate infection and disease caused by generalist parasites with direct or simple life cycles. Observed mechanisms include changes in host/vector density, host distribution, infection resistance, pathogen virulence or toxicity, and the direct supplementation of pathogens. Collectively, these pathogens may be particularly dangerous because they can continue to cause mortality even as their hosts decline, potentially leading to sustained epidemics or chronic pathology. We suggest that interactions between nutrient enrichment and disease will become increasingly important in tropical and subtropical regions, where forecasted increases in nutrient application will occur in an environment rich with infectious pathogens. We emphasize the importance of careful disease management in conjunction with continued intensification of global nutrient cycles.

摘要

全球范围内人类和野生动物疾病的增加,促使生态学家了解大规模环境变化如何影响宿主-寄生虫相互作用。地球生态系统最深刻的变化之一是改变全球养分循环,包括磷(P)和氮(N)。除了为粮食生产提供养分的明显直接益处外,人为输入的氮和磷也可以间接影响传染性和非传染性病原体的丰度。然而,支撑观察到的相关性的机制以及这些模式如何随疾病类型而变化,长期以来一直是推测性的。在这里,我们强调最近的实验进展,以批判性地评估环境养分富化与疾病之间的关系。鉴于人类和野生动物疾病的出现具有相互关联的性质,我们从陆地、海洋和淡水生态系统中包括了广泛的人类和野生动物的例子。我们研究了养分污染对直接传播、媒介传播、复杂生命周期和非传染性病原体的后果,包括西尼罗河病毒、疟疾、有害藻类水华、珊瑚礁疾病和两栖动物畸形。我们的综合研究表明,环境养分富化对疾病的影响是复杂的,具有多方面性,因病原体类型、宿主物种和状况、生态系统属性以及富化程度而异;有些病原体的丰度增加,而有些则减少或消失。然而,现有证据表明,与养分富化相关的生态变化往往会加剧具有直接或简单生命周期的寄生虫的感染和疾病。观察到的机制包括宿主/媒介密度、宿主分布、感染抵抗力、病原体毒力或毒性以及病原体的直接补充的变化。总的来说,这些病原体可能特别危险,因为即使宿主减少,它们仍会继续导致死亡,从而可能导致持续的流行或慢性病理学。我们认为,在热带和亚热带地区,养分富化与疾病的相互作用将变得越来越重要,因为这些地区预计会增加养分的应用,而这些地区的环境中富含传染性病原体。我们强调在继续加强全球养分循环的同时,谨慎管理疾病的重要性。

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