Comparison of three QTL detection models on biochemical, sensory, and yield characters in Coffea canephora

被引:9
作者
Merot-L'Anthone, Virginie [1 ]
Mangin, Brigitte [2 ]
Lefebvre-Pautigny, Florent [3 ]
Jasson, Sylvain [2 ]
Rigoreau, Michel [1 ]
Husson, Jwanro [1 ]
Lambot, Charles [1 ]
Crouzillat, Dominique [1 ]
机构
[1] Nestle R&D Ctr, F-37097 Tours 2, France
[2] INRA, UR875, MIAT, F-31320 Castanet Tolosan, France
[3] Nestle Nespresso, CH-1007 Lausanne, Switzerland
关键词
Coffea canephora; QTL detection models; Yield; Bean biochemical composition; QUANTITATIVE TRAIT LOCI; GENETIC DIFFERENTIATION; CONNECTED POPULATIONS; SUCROSE DIVERSITY; MULTIPLE LOCI; LINKAGE MAPS; GENUS COFFEA; POWER; CAFFEINE; PIERRE;
D O I
10.1007/s11295-014-0778-1
中图分类号
S7 [林业];
学科分类号
0829 ; 0907 ;
摘要
Coffea canephora is subject to enormous competitive challenges from other crops, especially for farmer sustainability and consumer requirements. Coffee breeding programs have to focus on specific traits linked to these two key targets, such as quality character, largely depending on the bean's biochemical composition and field yield. Two segregating populations A and B, from crosses between a hybrid (Congolese x Guinean) FRT58 parental clone and a Congolese FRT51 genotype and between two Congolese parents FRT67 and FRT51, respectively, were used to characterize the quantitative trait loci (QTL) involved in agronomic and biochemical traits. A consensus genetic map was established using 249 SSRs covering 1,201 cM. Three QTL detection models per population with MapQTL (model I) and MCQTL (model II) followed by a connected population approach with MCQTL (model III) were compared based on their efficiency, precision for QTL detection, and their genetic effect assessment (additive, dominance, and parental-favorable allele). The analysis detected a total of 143 QTLs, 60 of which were shared between the three models; 28 found with two models; and two, 13, and 40 specific from models I, II, and III, respectively. The last model III based on connected populations is much more efficient in detecting QTLs with low variance explained and led to the genetic characterization of favorable allele. Thanks to this comparison of three QTL detection models on our quantitative genetic study, we will give a new insight for coffee breeding programs dedicated to managing complex agronomic or qualitative traits.
引用
收藏
页码:1541 / 1553
页数:13
相关论文
共 59 条
[1]  
Abeyot Tessema Abeyot Tessema, 2011, International Journal of Plant Breeding and Genetics, V5, P302
[2]   Identification and mapping of a major gene (Ft1) involved in fructification time in the interspecific cross Coffea pseudozanguebariae x C. liberica var. Dewevrei: impact on caffeine content and seed weight [J].
Akaffou, D. S. ;
Ky, C. L. ;
Barre, P. ;
Hamon, S. ;
Louarn, J. ;
Noirot, M. .
THEORETICAL AND APPLIED GENETICS, 2003, 106 (08) :1486-1490
[3]   Genetic basis of species differentiation between Coffea liberica Hiern and C-canephora Pierre:: Analysis of an interspecific cross [J].
Amidou, N'Diaye ;
Michel, Noirot ;
Serge, Hamon ;
Valerie, Poncet .
GENETIC RESOURCES AND CROP EVOLUTION, 2007, 54 (05) :1011-1021
[4]  
[Anonymous], R LANG ENV STAT COMP
[5]   QTL Mapping of Flowering and Fruiting Traits in Olive [J].
Ben Sadok, Ines ;
Celton, Jean-Marc ;
Essalouh, Laila ;
El Aabidine, Amal Zine ;
Garcia, Gilbert ;
Martinez, Sebastien ;
Grati-Kamoun, Naziha ;
Rebai, Ahmed ;
Costes, Evelyne ;
Khadari, Bouchaib .
PLOS ONE, 2013, 8 (05)
[6]  
Berthaud J., 1986, Les ressources genetiques pour l'amelioration des cafeires africains diploides
[7]   QTL detection by multi-parent linkage mapping in oil palm (Elaeis guineensis Jacq.) [J].
Billotte, N. ;
Jourjon, M. F. ;
Marseillac, N. ;
Berger, A. ;
Flori, A. ;
Asmady, H. ;
Adon, B. ;
Singh, R. ;
Nouy, B. ;
Potier, F. ;
Cheah, S. C. ;
Rohde, W. ;
Ritter, E. ;
Courtois, B. ;
Charrier, A. ;
Mangin, B. .
THEORETICAL AND APPLIED GENETICS, 2010, 120 (08) :1673-1687
[8]   Connected populations for detecting quantitative trait loci and testing for epistasis: an application in maize [J].
Blanc, G. ;
Charcosset, A. ;
Mangin, B. ;
Gallais, A. ;
Moreau, L. .
THEORETICAL AND APPLIED GENETICS, 2006, 113 (02) :206-224
[9]  
Blanc G, 2007, EUPHYTICA
[10]   Trigonelline and sucrose diversity in wild Coffea species [J].
Campa, C ;
Ballester, I ;
Doulbeau, S ;
Dussert, S ;
Hamon, S ;
Noirot, M .
FOOD CHEMISTRY, 2004, 88 (01) :39-43