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2
Immune activation generates corticosterone-mediated terminal reproductive investment in a wild bird.免疫激活在一种野生鸟类中产生了由皮质酮介导的终生产卵投入。
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3
Species' life-history traits explain interspecific variation in reservoir competence: a possible mechanism underlying the dilution effect.物种的生活史特征解释了种间储主感染能力的差异:稀释效应的可能机制。
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Linking immune defenses and life history at the levels of the individual and the species.将个体和物种层面的免疫防御与生活史联系起来。
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免疫反应的成本与宿主的体型和寿命有关。

Costs of immune responses are related to host body size and lifespan.

机构信息

Department of Integrative Biology, University of South Florida, Tampa, Florida.

Department of Biology, Franklin and Marshall College, Lancaster, Pennsylvania.

出版信息

J Exp Zool A Ecol Integr Physiol. 2017 Jun;327(5):254-261. doi: 10.1002/jez.2084. Epub 2017 Aug 3.

DOI:10.1002/jez.2084
PMID:29356459
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC5786166/
Abstract

A central assumption in ecological immunology is that immune responses are costly, with costs manifesting directly (e.g., increases in metabolic rate and increased amino acid usage) or as tradeoffs with other life processes (e.g., reduced growth and reproductive success). Across taxa, host longevity, timing of maturity, and reproductive effort affect the organization of immune systems. It is reasonable, therefore, to expect that these and related factors should also affect immune activation costs. Specifically, species that spread their breeding efforts over a long lifetime should experience lower immune costs than those that mature and breed quickly and die comparatively early. Likewise, body mass should affect immune costs, as body size affects the extent to which hosts are exposed to parasites as well as how hosts can combat infections (via its effects on metabolic rates and other factors). Here, we used phylogenetic meta-regression to reveal that, in general, animals incur costs of immune activation, but small species that are relatively long-lived incur the largest costs. These patterns probably arise because of the relative need for defense when infection risk is comparatively high and fitness can only be realized over a comparatively long period. However, given the diversity of species considered here and the overall modest effects of body mass and life history on immune costs, much more research is necessary before generalizations are appropriate.

摘要

生态免疫学的一个核心假设是,免疫反应是有代价的,这些代价可以直接表现出来(例如,代谢率增加和氨基酸利用率增加),也可以通过与其他生命过程的权衡来表现(例如,生长和繁殖成功率降低)。在不同的分类群中,宿主的寿命、成熟时间和繁殖努力都会影响免疫系统的组织。因此,可以合理地预期,这些因素和相关因素也应该会影响免疫激活的代价。具体来说,那些将繁殖努力分散在很长的生命周期中的物种,应该比那些快速成熟和繁殖并相对较早死亡的物种经历更低的免疫代价。同样,体重应该会影响免疫代价,因为体型大小会影响宿主接触寄生虫的程度,以及宿主如何对抗感染(通过对代谢率和其他因素的影响)。在这里,我们使用系统发育元回归来揭示,一般来说,动物会产生免疫激活的代价,但相对长寿的小型物种会产生最大的代价。这些模式可能是由于当感染风险相对较高且只能在相对较长的时间内实现适应性时,防御的相对必要性所致。然而,考虑到这里考虑的物种多样性以及体重和生活史对免疫代价的总体适度影响,在做出概括之前,还需要进行更多的研究。