PHYLOGENY OF CAPSID PROTEINS OF SMALL ICOSAHEDRAL RNA PLANT-VIRUSES

被引:55
作者
DOLJA, VV [1 ]
KOONIN, EV [1 ]
机构
[1] ACAD SCI USSR, INST MICROBIOL, MOSCOW 117811, USSR
关键词
COMPLETE NUCLEOTIDE-SEQUENCE; TURNIP CRINKLE VIRUS; COAT PROTEIN; GENOMIC RNA; ORGANIZATION; GENE; LUTEOVIRUSES;
D O I
10.1099/0022-1317-72-7-1481
中图分类号
Q81 [生物工程学(生物技术)]; Q93 [微生物学];
学科分类号
071005 ; 0836 ; 090102 ; 100705 ;
摘要
Statistically significant alignment was generated between the amino acid sequences of the (putative) shell (S) domains of the capsid proteins of small RNA plant viruses with icosahedral capsids in the tombusvirus, carmovirus, dianthovirus, sobemovirus and luteovirus groups. Inspection of the alignment showed good correspondence between the experimentally defined beta-strands and alpha-helices of the capsid proteins of tomato bushy stunt, southern bean mosaic and turnip crinkle viruses, allowing prediction of the secondary structure elements in proteins with unresolved tertiary structure. It is concluded that this set of viral capsid proteins forms a tight evolutionary cluster. Comparison of the alignment of the proteins of this family with the sequences of other capsid proteins of icosahedral RNA viruses revealed more distant similarities to the satellites of tobacco necrosis, panicum mosaic, tobacco mosaic and maize white line mosaic viruses, as well as to nepo- and comoviruses. The tentative phylogenetic tree derived from the capsid protein alignment separated into three main lineages: (I) carmo-, tombus- and dianthoviruses, (II) southern bean mosaic, tobacco necrosis and maize chlorotic mottle viruses, and (III) luteoviruses. Comparison of this tree topology with the tentative evolutionary schemes for the respective virus RNA-dependent RNA polymerases suggested that gene shuffling is the universal trend in the evolution of small RNA plant virus genomes.
引用
收藏
页码:1481 / 1486
页数:6
相关论文
共 48 条
  • [1] [Anonymous], 1989, PHYLIP 3.2 Manual
  • [2] A STRUCTURAL COMPARISON OF CONCANAVALIN-A AND TOMATO BUSHY STUNT VIRUS PROTEIN
    ARGOS, P
    TSUKIHARA, T
    ROSSMANN, MG
    [J]. JOURNAL OF MOLECULAR EVOLUTION, 1980, 15 (03) : 169 - 179
  • [3] COMPARATIVE-ANALYSIS OF VIRAL CYSTEINE PROTEASE STRUCTURAL MODELS
    BAZAN, JF
    FLETTERICK, RJ
    [J]. FEBS LETTERS, 1989, 249 (01) : 5 - 7
  • [4] SECONDARY STRUCTURE PREDICTION - COMBINATION OF 3 DIFFERENT METHODS
    BIOU, V
    GIBRAT, JF
    LEVIN, JM
    ROBSON, B
    GARNIER, J
    [J]. PROTEIN ENGINEERING, 1988, 2 (03): : 185 - 191
  • [5] BRODSKY LI, 1991, IN PRESS BIOPOLIMERY, V7
  • [6] THE GENOME STRUCTURE OF TURNIP CRINKLE VIRUS
    CARRINGTON, JC
    HEATON, LA
    ZUIDEMA, D
    HILLMAN, BI
    MORRIS, TJ
    [J]. VIROLOGY, 1989, 170 (01) : 219 - 226
  • [7] STRUCTURE AND ASSEMBLY OF TURNIP CRINKLE VIRUS .4. ANALYSIS OF THE COAT PROTEIN GENE AND IMPLICATIONS OF THE SUBUNIT PRIMARY STRUCTURE
    CARRINGTON, JC
    MORRIS, TJ
    STOCKLEY, PG
    HARRISON, SC
    [J]. JOURNAL OF MOLECULAR BIOLOGY, 1987, 194 (02) : 265 - 276
  • [8] Chumakov K.M., 1988, MOLEKULARNAYA GENETI, V3, P3
  • [9] DAYHOFF MO, 1983, METHOD ENZYMOL, V91, P524
  • [10] DOLJA VV, 1991, IN PRESS VIROLOGY