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遗传冲突、亲缘关系与新型遗传系统的起源

Genetic conflict, kin and the origins of novel genetic systems.

作者信息

Normark Benjamin B, Ross Laura

机构信息

Department of Biology and Graduate Program in Organismic and Evolutionary Biology, University of Massachusetts, , Amherst, MA 01003, USA.

出版信息

Philos Trans R Soc Lond B Biol Sci. 2014 Mar 31;369(1642):20130364. doi: 10.1098/rstb.2013.0364. Print 2014 May 19.

DOI:10.1098/rstb.2013.0364
PMID:24686935
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC3982665/
Abstract

Genetic conflict may have played an important role in the evolution of novel genetic systems. The ancestral system of eumendelian genetics is highly symmetrical. Those derived from it (e.g. thelytokous parthenogenesis, haplodiploidy and parent-specific allele expression) are more asymmetrical in the genetic role played by maternal versus paternal alleles. These asymmetries may have arisen from maternal-paternal genetic conflict, or cytonuclear conflict, or from an interaction between them. Asymmetric genetic systems are much more common in terrestrial and freshwater taxa than in marine taxa. We suggest three reasons for this, based on the relative inhospitability of terrestrial environments to three types of organism: (i) pathogens-departure from the marine realm meant escape from many pathogens and parasites, reducing the need for sexual reproduction; (ii) symbionts-symbionts are no more important in the terrestrial realm than the marine realm but are more likely to be obligately intracellular and vertically transmitted, making them more likely to disrupt their host's genetic systems; (iii) Gametes and embryos-because neither gametes nor embryos can be shed into air as easily as into seawater, the mother's body is a more important environment for both types of organisms in the terrestrial realm than in the marine realm. This environment of asymmetric kinship (with neighbours more closely related by maternal alleles than by paternal alleles) may have helped to drive asymmetries in expression and transmission.

摘要

基因冲突可能在新型遗传系统的进化中发挥了重要作用。孟德尔遗传学的祖先系统高度对称。从中衍生出来的系统(如产雌孤雌生殖、单倍二倍体和亲本特异性等位基因表达)在母本和父本等位基因所起的遗传作用上更加不对称。这些不对称可能源于母本 - 父本基因冲突、细胞质 - 细胞核冲突,或者它们之间的相互作用。不对称遗传系统在陆地和淡水分类群中比在海洋分类群中更为常见。基于陆地环境对三类生物相对不适宜,我们提出三个原因:(i)病原体——离开海洋领域意味着逃离许多病原体和寄生虫,减少了有性生殖的需求;(ii)共生体——共生体在陆地领域并不比海洋领域更重要,但更有可能是专性细胞内寄生且垂直传播,这使得它们更有可能破坏宿主的遗传系统;(iii)配子和胚胎——因为配子和胚胎都不能像在海水中那样轻易地排放到空气中,所以在陆地领域,母亲的身体对这两类生物来说比在海洋领域更重要。这种不对称亲属关系的环境(邻居通过母本等位基因比通过父本等位基因关系更密切)可能有助于推动表达和传播的不对称性。