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首页> 外文期刊>The Journal of Heredity >Analysis of flavonoids in flower petals of soybean near-isogenic lines for flower and pubescence color genes
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Analysis of flavonoids in flower petals of soybean near-isogenic lines for flower and pubescence color genes

机译:大豆近等基因系花瓣中黄酮的花和青春期颜色基因分析。

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摘要

W1, W3, W4, and Wm genes control flower color, whereas T and Td genes control pubescence color in soybean. W1, W3, Wm, and Tare presumed to encode flavonoid 3'5'-hydroxylase (EC 1.14.13.88), dihydroflavonol 4-reductase (EC 1.1.1.219), flavonol synthase (EC 1.14.11.23), and flavonoid 3'-hydroxylase (EC 1.14.13.21), respectively. The objective of this study was to determine the structure of the primary anthocyanin, flavonol, and clihydroflavonol in flower petals. Primary component of anthocyanin in purple flower cultivars Clark (W1W1 w3w3 W1W1 WmWm TT TdTd) and Hato soy (W1W1 w3w3 W1W1 WmWm tt TdTd) was malvidin 3,5-di-O-glucoside with delphiniclin 3,5-di-O-glucoside as a minor compound. Primary flavonol and dihydroflavonol were kaempferol 3-O-gentiobioside and aromadendrin 3- O-glucoside, respectively. Quantitative analysis of near-isogenic lines (NILs) for flower or pubescence color genes, Clark-w1 (white flower), Clark-w4 (near-white flower), Clark-W3w4 (dilute purple flower), Clark-t (gray pubescence), Clark-td (near-gray pubescence), Harosoy-wm (magenta flower), and Harosoy-T(tawny pubescence) was carried out. No anthocyanins were detected in Clark-w1 and Clark-w4, whereas a trace amount was detected in Clark-W3w4. Amount of flavonols and dihydroflavonol in NILs with w1 or w4 were largely similar to the NILs with purple flower suggesting that W1 and W1 affect only anthocyanin biosynthesis. Amount of flavonol glycosides was substantially reduced and clihydroflavonol was increased in Harosoy-wm suggesting that Wm is responsible for the production of flavonol from clihydroflavonol. The recessive mim allele reduces flavonol amount and inhibits co-pigmentation between anthocyanins and flavonols resulting in less bluer (magenta) flower color. Pubescence color genes, Tor Td, had no apparent effect on flavonoid biosynthesis in flower petals.
机译:W1,W3,W4和Wm基因控制花色,而T和Td基因控制大豆中的青春期色。假设W1,W3,Wm和Tare编码类黄酮3'5'-羟化酶(EC 1.14.13.88),二氢类黄酮4-还原酶(EC 1.1.1.219),类黄酮合酶(EC 1.14.11.23)和类黄酮3'-羟化酶(EC 1.14.13.21)。这项研究的目的是确定花瓣中主要花色苷,黄酮醇和clihydroflavonol的结构。紫色花品种Clark(W1W1 w3w3 W1W1 WmWm TT TdTd)和Hato大豆(W1W1 w3w3 W1W1 WmWm tt TdTd)中花色苷的主要成分是马维达3,5-二-O-葡萄糖苷与地弗林素3,5-二-O-葡萄糖苷作为次要化合物。伯黄酮醇和二氢黄酮醇分别为山奈酚3-O-龙胆生物苷和芳香木苷3-O-葡糖苷。花朵或青春期颜色基因,Clark-w1(白花),Clark-w4(近白花),Clark-W3w4(淡紫色花),Clark-t(灰白色)的近等基因系(NIL)的定量分析),Clark-td(近灰色短柔毛),Harosoy-wm(洋红色花)和Harosoy-T(黄褐色短柔毛)。在Clark-w1和Clark-w4中未检测到花青素,而在Clark-W3w4中检测到了痕量。 w1或w4的NIL中黄酮醇和二氢黄酮醇的量与紫色花的NIL相似,表明W1和W1仅影响花色苷的生物合成。在Harosoy-wm中,黄酮醇苷的含量大大减少,而clihydroflavonol增加了,这表明Wm负责由clihydroflavonol生产黄酮醇。隐性mim等位基因减少了黄酮醇的含量,并抑制了花色苷和黄酮醇的共色素沉着,从而导致花的蓝色(洋红色)颜色减少。青春期颜色基因Tor Td对花瓣中的类黄酮生物合成没有明显影响。

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