Exceptional convergent evolution in a virus

被引:0
|
作者
Bull, JJ
Badgett, MR
Wichman, HA
Huelsenbeck, JP
Hillis, DM
Gulati, A
Ho, C
Molineux, IJ
机构
[1] UNIV TEXAS, DEPT MICROBIOL, AUSTIN, TX 78712 USA
[2] UNIV TEXAS, INST CELLULAR & MOL BIOL, AUSTIN, TX 78712 USA
[3] UNIV IDAHO, DEPT SCI BIOL, MOSCOW, ID 83844 USA
[4] UNIV CALIF BERKELEY, DEPT INTEGRAT BIOL, BERKELEY, CA 94702 USA
关键词
D O I
暂无
中图分类号
Q3 [遗传学];
学科分类号
071007 ; 090102 ;
摘要
Replicate lineages of the bacteriophage phi X 174 adapted to growth at high temperature on either of two hosts exhibited high rates of identical, independent substitutions. Typically, a dozen or more substitutions accumulated in the 5.4-kilobase genome during propagation. Across the entire data set of nine lineages, 119 independent substitutions occurred at 68 nucleotide sites. Over half of these substitutions, accounting far one third of the sites, were identical with substitutions in other lineages. Some convergent substitutions were specific to the host used for phage propagation, but others occurred across both hosts. Continued adaptation of an evolved phage at high temperature, but on the other host, led to additional changes that included reversions of previous substitutions. Phylogenetic reconstruction using the complete genome sequence not only failed to recover the correct evolutionary history because of these convergent changes, but the true history was rejected as being a significantly inferior fit to the data. Replicate lineages subjected to similar environmental challenges showed similar rates of substitution and similar rates of fitness improvement across corresponding times of adaptation. Substitution rates and fitness improvements were higher during the initial period of adaptation than during a later period, except when the host was changed.
引用
收藏
页码:1497 / 1507
页数:11
相关论文
共 50 条
  • [1] Convergent Evolution in Aquatic Tetrapods: Insights from an Exceptional Fossil Mosasaur
    Lindgren, Johan
    Caldwell, Michael W.
    Konishi, Takuya
    Chiappe, Luis M.
    PLOS ONE, 2010, 5 (08):
  • [2] Convergent evolution
    Crutchfield, CA
    AMERICAN SCIENTIST, 2001, 89 (06) : 484 - 484
  • [3] Convergent antibody evolution and clonotype expansion following influenza virus vaccination
    Forgacs, David
    Abreu, Rodrigo B.
    Sautto, Giuseppe A.
    Kirchenbaum, Greg A.
    Drabek, Elliott
    Williamson, Kevin S.
    Kim, Dongkyoon
    Emerling, Daniel E.
    Ross, Ted M.
    PLOS ONE, 2021, 16 (02):
  • [4] CRIME CONTROL IN JAPAN: EXCEPTIONAL, CONVERGENT OR WHAT ELSE?
    Brewster, David
    BRITISH JOURNAL OF CRIMINOLOGY, 2020, 60 (06): : 1547 - 1566
  • [5] Convergent Evolution of Vocal Cooperation without Convergent Evolution of Brain Size
    Borjon, Jeremy I.
    Ghazanfar, Asif A.
    BRAIN BEHAVIOR AND EVOLUTION, 2014, 84 (02) : 93 - 102
  • [6] CONVERGENT CHEMICAL EVOLUTION
    PRINCE, R
    NATURAL HISTORY, 1994, 103 (05) : 4 - &
  • [7] Convergent Evolution of Hearing
    Hoy, Ronald R.
    SCIENCE, 2012, 338 (6109) : 894 - 895
  • [8] Convergent evolution of medicines
    Kong, De-Xin
    Li, Xue-Juan
    Zhang, Hong-Yu
    CHEMMEDCHEM, 2008, 3 (08) : 1169 - 1171
  • [9] The convergent evolution in plants
    Bennici, A
    RIVISTA DI BIOLOGIA-BIOLOGY FORUM, 2003, 96 (03): : 485 - 489
  • [10] Convergent evolution in the Euarchontoglires
    Morris, Philip J. R.
    Cobb, Samuel N. F.
    Cox, Philip G.
    BIOLOGY LETTERS, 2018, 14 (08)