Evolution and gene capture in ancient endogenous retroviruses - insights from the crocodilian genomes

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• 作者：Amanda Y Chong (1)
  Kenji K Kojima (2)
  Jerzy Jurka (2)
  David A Ray (3) (4) (5)
  Arian F A Smit (6)
  Sally R Isberg (1) (7)
  Jaime Gongora (1)
  
  1. Faculty of Veterinary Science ; University of Sydney ; Sydney ; NSW ; 2006 ; Australia
  2. Genetic Information Research Institute ; Los Altos ; CA ; 94022 ; USA
  3. Department of Biochemistry ; Molecular Biology ; Plant Pathology and Entomology ; Mississippi State University ; Starkville ; Mississippi State ; 39762 ; USA
  4. Institute for Genomics ; Biocomputing and Biotechnology ; Mississippi State University ; Starkville ; Mississippi State ; 39762 ; USA
  5. Current Address ; Department of Biological Sciences ; Texas Tech University ; Lubbock ; TX ; 79409 ; USA
  6. Institute for Systems Biology ; Seattle ; WA ; 98109-5234 ; USA
  7. Centre for Crocodile Research ; Noonamah ; NT ; 0837 ; Australia
  
• 刊名：Retrovirology
• 出版年：2014
• 出版时间：December 2014
• 年：2014
• 卷：11
• 期：1
• 全文大小：5,571 KB
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• 刊物主题：Virology; Infectious Diseases; Cancer Research;
• 出版者：BioMed Central
• ISSN：1742-4690

文摘

Background Crocodilians are thought to be hosts to a diverse and divergent complement of endogenous retroviruses (ERVs) but a comprehensive investigation is yet to be performed. The recent sequencing of three crocodilian genomes provides an opportunity for a more detailed and accurate representation of the ERV diversity that is present in these species. Here we investigate the diversity, distribution and evolution of ERVs from the genomes of three key crocodilian species, and outline the key processes driving crocodilian ERV proliferation and evolution. Results ERVs and ERV related sequences make up less than 2% of crocodilian genomes. We recovered and described 45 ERV groups within the three crocodilian genomes, many of which are species specific. We have also revealed a new class of ERV, ERV4, which appears to be common to crocodilians and turtles, and currently has no characterised exogenous counterpart. For the first time, we formally describe the characteristics of this ERV class and its classification relative to other recognised ERV and retroviral classes. This class shares some sequence similarity and sequence characteristics with ERV3, although it is phylogenetically distinct from the other ERV classes. We have also identified two instances of gene capture by crocodilian ERVs, one of which, the capture of a host KIT-ligand mRNA has occurred without the loss of an ERV domain. Conclusions This study indicates that crocodilian ERVs comprise a wide variety of lineages, many of which appear to reflect ancient infections. In particular, ERV4 appears to have a limited host range, with current data suggesting that it is confined to crocodilians and some lineages of turtles. Also of interest are two ERV groups that demonstrate evidence of host gene capture. This study provides a framework to facilitate further studies into non-mammalian vertebrates and highlights the need for further studies into such species.