Molecular-genetic mechanisms of regulation of growth habit in wheat

被引:0
|
作者
A. F. Muterko
I. A. Balashova
V. I. Fayt
Yu. M. Sivolap
机构
[1] National Academy of Agricultural Sciences,Plant Breeding and Genetics Institute, National Center of Seed and Cultivar Investigation
来源
Cytology and Genetics | 2015年 / 49卷
关键词
genes of wheat; genes ; locus ; vernalization response; frost resistance; epistatic interaction; feedback regulation;
D O I
暂无
中图分类号
学科分类号
摘要
The vernalization requirement determines the need of plants in a prolonged period of cold treatment for transition from a vegetative to a reproductive phase. The vernalization response in wheat is controlled by the alleles of Vrn genes. A molecular structure and causes that are the basis of alternative alleles have been defined for almost all Vrn genes. Vrn1, Vrn2, and Vrn3 interact epistaticaly and form the positive feedback loop that is activated in winter wheat by the vernalization conditions. Vrn2 locus is a key element for flowering repression in winter wheat before vernalization, whereas Vrn1 mostly determines flowering time for spring varieties. In the present review, the studies of molecular mechanisms and genetic determination of pathways that regulate of growth habit (type of development) in wheat have been analyzed. The organization, structure, and functions of Vrn genes and their expression products are discussed in detail. Particular attention is paid to the structure of regulatory regions and the molecular mechanisms, which regulate of these genes’ expression. The modern view on the model reflecting interaction between Vrn genes and the environmental during vernalization has been formulated.
引用
收藏
页码:58 / 71
页数:13
相关论文
共 50 条
  • [41] MOLECULAR-GENETIC INTERVENTIONS FOR MALIGNANCY AND AIDS
    NABEL, GJ
    NABEL, EG
    PLAUTZ, GE
    YANG, Z
    GAO, X
    HUANG, L
    GORDON, D
    FOX, B
    SHU, S
    CHANG, A
    [J]. JOURNAL OF CELLULAR BIOCHEMISTRY, 1994, : 7 - 7
  • [42] MOLECULAR-GENETIC BASIS FOR RHIZOBIUM SELECTION
    SIMAROV, BV
    NOVIKOVA, NN
    SHARYPOVA, LA
    PROVOROV, NA
    ARONSHTAM, AA
    KUCHKO, VV
    [J]. INTERRELATIONSHIPS BETWEEN MICROORGANISMS AND PLANTS IN SOIL, 1989, : 45 - 50
  • [43] Multimodality in vivo molecular-genetic imaging
    Doubrovin, M
    Serganova, I
    Mayer-Kuckuk, P
    Ponomarev, V
    Blasberg, RG
    [J]. BIOCONJUGATE CHEMISTRY, 2004, 15 (06) : 1376 - 1388
  • [44] Determination and differentiation in molecular-genetic aspect
    Korochkin L.I.
    [J]. Russian Journal of Developmental Biology, 2005, 36 (5) : 276 - 284
  • [45] MOLECULAR-GENETIC ANALYSES OF DROSOPHILA KINESIN
    STEWART, RJ
    GOLDSTEIN, LSB
    [J]. CURRENT TOPICS IN MEMBRANES, 1991, 38 : 1 - 11
  • [46] A MOLECULAR-GENETIC STUDY OF INTRACEREBRAL HEMORRHAGE
    GRAFFAGNINO, C
    HERBSTREITH, MH
    ROSES, AD
    ALBERTS, MJ
    [J]. ARCHIVES OF NEUROLOGY, 1994, 51 (10) : 981 - 984
  • [47] NEUROGENESIS IN XENOPUS - A MOLECULAR-GENETIC PERSPECTIVE
    FERREIRO, B
    HARRIS, WA
    [J]. ADVANCES IN GENETICS, VOL 31, 1994, 31 : 29 - 78
  • [48] MOLECULAR-GENETIC STUDIES OF FRIEDREICHS ATAXIA
    MONTERMINI, L
    MOLTO, MD
    ZARA, F
    PATEL, PI
    PIANESE, L
    CAVALCANTI, F
    RODIUS, F
    COCOZZA, S
    KOENIG, M
    PANDOLFO, M
    [J]. AMERICAN JOURNAL OF HUMAN GENETICS, 1995, 57 (04) : 1139 - 1139
  • [49] BIOCHEMICAL AND MOLECULAR-GENETIC BASIS OF HYDROGENASES
    HAHN, D
    KUCK, U
    [J]. PROCESS BIOCHEMISTRY, 1994, 29 (08) : 633 - 644
  • [50] Molecular-genetic imaging of prostate cancer
    Bhatnager, Akrita
    Gabrielson, Kathleen
    Fisher, Paul B.
    Pamper, Martin G.
    [J]. CANCER RESEARCH, 2013, 73 (08)