QTL analysis for capsaicinoid content in Capsicum

被引:0
|
作者
Arnon Ben-Chaim
Yelena Borovsky
Matthew Falise
Michael Mazourek
Byoung-Cheorl Kang
Ilan Paran
Molly Jahn
机构
[1] Cornell University,Department of Plant Breeding and Genetics
[2] The Volcani Center,Department of Plant Genetics, Agricultural Research Organization
来源
关键词
Capsaicin; Fruit Weight; Simple Sequence Repeat Locus; Dihydrocapsaicin; Digenic Interaction;
D O I
暂无
中图分类号
学科分类号
摘要
Pungency or “heat” found in Capsicum fruit results from the biosynthesis and accumulation of alkaloid compounds known as capsaicinoids in the dissepiment, placental tissue adjacent to the seeds. Pepper cultivars differ with respect to their level of pungency because of quantitative and qualitative variation in capsaicinoid content. We analyzed the segregation of three capsaicinoids: capsaicin, dihydrocapsaicin and nordihydrocapsaicin in an inter-specific cross between a mildly pungent Capsicum annuum ‘NuMex RNaky’ and the wild, highly pungent C. frutescens accession BG2814-6. F3 families were analyzed in three trials in California and in Israel and a dense molecular map was constructed comprised mostly of loci defined by simple sequence repeat (SSR) markers. Six QTL controlling capsaicinoid content were detected on three chromosomes. One gene from the capsaicinoid biosynthetic pathway, BCAT, and one random fruit EST, 3A2, co-localized with QTL detected in this study on chromosomes 3 and 4. Because one confounding factor in quantitative determination of capsaicinoid is fruit size, fruit weight measurements were taken in two trials. Two QTL controlling fruit weight were detected, however, they did not co-localize with QTL detected for capsaicinoid content. The major contribution to the phenotypic variation of capsaicinoid content (24–42% of the total variation) was attributed to a digenic interaction between a main-effect QTL, cap7.1, and a marker located on chromosome 2 that did not have a main effect on the trait. A second QTL, cap7.2 is likely to correspond to the QTL, cap, identified in a previous study as having pronounced influence on capsaicinoid content.
引用
收藏
相关论文
共 50 条
  • [31] Stable Capsaicinoid Biosynthesis during the Fruit Development Stage of Capsicum baccatum
    Sugiyama, Ryuji
    CYTOLOGIA, 2019, 84 (04) : 309 - 312
  • [32] The Capsicum MYB31 regulates capsaicinoid biosynthesis in the pepper pericarp
    Sun, Binmei
    Chen, Changming
    Song, Jiali
    Zheng, Peng
    Wang, Juntao
    Wei, Jianlang
    Cai, Wen
    Chen, Siping
    Cai, Yutong
    Yuan, Yuan
    Zhang, Shuanglin
    Liu, Shaoqun
    Lei, Jianjun
    Cheng, Guoju
    Zhu, Zhangsheng
    PLANT PHYSIOLOGY AND BIOCHEMISTRY, 2022, 176 : 21 - 30
  • [33] Molecular biology of capsaicinoid biosynthesis in chili pepper (Capsicum spp.)
    Aza-Gonzalez, Cesar
    Nunez-Palenius, Hector G.
    Ochoa-Alejo, Neftali
    PLANT CELL REPORTS, 2011, 30 (05) : 695 - 706
  • [34] Molecular biology of capsaicinoid biosynthesis in chili pepper (Capsicum spp.)
    Cesar Aza-González
    Hector G. Núñez-Palenius
    Neftalí Ochoa-Alejo
    Plant Cell Reports, 2011, 30 : 695 - 706
  • [35] Volatile and capsaicinoid composition of aji (Capsicum baccatum) and rocoto (Capsicum pubescens), two Andean species of chile peppers
    Kollmannsberger, Hubert
    Rodriguez-Burruezo, Adrian
    Nitz, Siegfried
    Nuez, Fernando
    JOURNAL OF THE SCIENCE OF FOOD AND AGRICULTURE, 2011, 91 (09) : 1598 - 1611
  • [36] Environmental and Genotypic Variation of Capsaicinoid and Flavonoid Concentrations in Habanero (Capsicum chinense) Peppers
    Butcher, Justin D.
    Crosby, Kevin M.
    Yoo, Kil Sun
    Patil, Bhimanagouda S.
    Ibrahim, A. M. H.
    Leskovar, Daniel I.
    Jifon, John L.
    HORTSCIENCE, 2012, 47 (05) : 574 - 579
  • [37] Capsaicinoid Concentration of Hawaii-grown Hot Peppers (Capsicum sp.)
    Radovich, Theodore J. K.
    Crosby, Kevin
    Butcher, Justin
    Teves, Glenn
    Arakaki, Alton
    HORTSCIENCE, 2010, 45 (08) : S60 - S60
  • [38] Capsaicinoid inheritance in an interspecific hybridization of Capsicum annuum x C-chinense
    Zewdie, Y
    Bosland, PW
    JOURNAL OF THE AMERICAN SOCIETY FOR HORTICULTURAL SCIENCE, 2000, 125 (04) : 448 - 453
  • [39] FORMATION AND METABOLISM OF THE PUNGENT PRINCIPLE OF CAPSICUM FRUITS .11. CAPSAICINOID FORMATION IN THE PROTOPLAST FROM THE PLACENTA OF CAPSICUM FRUITS
    FUJIWAKE, H
    SUZUKI, T
    IWAI, K
    AGRICULTURAL AND BIOLOGICAL CHEMISTRY, 1982, 46 (10): : 2591 - 2592
  • [40] QTL Analysis for Resistance to Ralstonia solanacearum in Capsicum Accession 'LS2341'
    Mimura, Yutaka
    Kageyama, Tomoko
    Minamiyama, Yasuhiro
    Hirai, Masashi
    JOURNAL OF THE JAPANESE SOCIETY FOR HORTICULTURAL SCIENCE, 2009, 78 (03): : 307 - 313