Detection and use of QTL for complex traits in multiple environments

被引:126
|
作者
van Eeuwijk, Fred A. [2 ,3 ]
Bink, Marco C. A. M. [2 ]
Chenu, Karine [4 ]
Chapman, Scott C. [1 ]
机构
[1] CSIRO Plant Ind, Queensland Biosci Precinct, St Lucia, Qld 4067, Australia
[2] Univ Wageningen & Res Ctr, Wageningen, Netherlands
[3] Ctr Biosyst Genom, NL-6700 AB Wageningen, Netherlands
[4] DEEDI, APSRU, Queensland Primary Ind & Fisheries, Toowoomba, Qld 4350, Australia
关键词
MODEL SELECTION APPROACH; MIXED-MODEL; LEAF GROWTH; WATER-DEFICIT; LOCI; PLANT; RESPONSES; GENE; IDENTIFICATION; TRIALS;
D O I
10.1016/j.pbi.2010.01.001
中图分类号
Q94 [植物学];
学科分类号
071001 ;
摘要
QTL mapping methods for complex traits are challenged by new developments in marker technology, phenotyping platforms, and breeding methods. In meeting these challenges, QTL mapping approaches will need to also acknowledge the central roles of QTL by environment interactions (QEI) and QTL by trait interactions in the expression of complex traits like yield. This paper presents an overview of mixed model QTL methodology that is suitable for many types of populations and that allows predictive modeling of QEI, both for environmental and developmental gradients. Attention is also given to multitrait QTL models which are essential to interpret the genetic basis of trait correlations. Biophysical (crop growth) model simulations are proposed as a complement to statistical OIL mapping for the interpretation of the nature of QEI and to investigate better methods for the dissection of complex traits into component traits and their genetic controls.
引用
收藏
页码:193 / 205
页数:13
相关论文
共 50 条
  • [21] QTL Analysis of Five Silique-Related Traits in Brassica napus L. Across Multiple Environments
    Zhao, Xiaozhen
    Yu, Kunjiang
    Pang, Chengke
    Wu, Xu
    Shi, Rui
    Sun, Chengming
    Zhang, Wei
    Chen, Feng
    Zhang, Jiefu
    Wang, Xiaodong
    FRONTIERS IN PLANT SCIENCE, 2021, 12
  • [22] Use of component analysis in QTL mapping of complex crop traits: a case study on yield in barley
    Yin, X
    Chasalow, SD
    Stam, P
    Kropff, MJ
    Dourleijn, CJ
    Bos, I
    Bindraban, PS
    PLANT BREEDING, 2002, 121 (04) : 314 - 319
  • [23] Simultaneous estimation of QTL parameters for mapping multiple traits
    Liang Tong
    Xiaoxia Sun
    Ying Zhou
    Journal of Genetics, 2018, 97 : 267 - 274
  • [24] Mapping QTL for multiple traits using Bayesian statistics
    Xu, Chenwu
    Wang, Xuefeng
    Li, Zhikang
    Xu, Shizhong
    GENETICS RESEARCH, 2009, 91 (01) : 23 - 37
  • [25] Simultaneous estimation of QTL parameters for mapping multiple traits
    Tong, Liang
    Sun, Xiaoxia
    Zhou, Ying
    JOURNAL OF GENETICS, 2018, 97 (01) : 267 - 274
  • [26] Accounting for variability in the detection and use of markers for simple and complex traits
    Chapman, S. C.
    Wang, J.
    Rebetzke, G. J.
    Bonnett, D. G.
    SCALE AND COMPLEXITY IN PLANT SYSTEMS RESEARCH: GENE-PLANT-CROP RELATIONS, 2007, 21 : 37 - +
  • [27] The evolution of quantitative traits in complex environments
    Anderson, J. T.
    Wagner, M. R.
    Rushworth, C. A.
    Prasad, K. V. S. K.
    Mitchell-Olds, T.
    HEREDITY, 2014, 112 (01) : 4 - 12
  • [28] The evolution of quantitative traits in complex environments
    J T Anderson
    M R Wagner
    C A Rushworth
    K V S K Prasad
    T Mitchell-Olds
    Heredity, 2014, 112 : 4 - 12
  • [29] QTL architecture of resistance and tolerance traits in Arabidopsis thaliana in natural environments
    Weinig, C
    Stinchcombe, JR
    Schmitt, J
    MOLECULAR ECOLOGY, 2003, 12 (05) : 1153 - 1163
  • [30] QTL detection of yield-related traits of cashew
    Vasconcelos Cacalcanti, Jose Jaime
    Costa dos Santos, Francisco Herbeth
    da Silva, Fanuel Pereira
    Pinheiro, Cassia Renata
    CROP BREEDING AND APPLIED BIOTECHNOLOGY, 2012, 12 (01): : 60 - 66