Page 128 - 《广西植物》2026年第5期
P. 128

8 6 0                                  广  西  植  物                                         46 卷
            绘制出红花深山含笑花青素生物合成通路差异代                                Optimisation of extraction procedure and development of LC ̄
            谢物的调控网络图ꎬ发现深山含笑和红花深山含                                DAD ̄MS   methodology  for  anthocyanin  analysis  in
                                                                 anthocyanin ̄pigmented corn kernels [ J]. Food Chemistryꎬ
            笑在二氢山奈酚代谢途径的分支中有所差异ꎬ推
                                                                 319: 126515.
            测 F3’5’H、F3’ H、DFR、ANS、BZ1 等相关结构基
                                                               KOBAYASHI Sꎬ ISHIMARU Mꎬ DING C Kꎬ et al.ꎬ 2001.
            因的表达量可能在不同花色的花瓣中存在差异ꎬ                                Comparison  of   UDP ̄glucose:  flavonoid  3 ̄O ̄
            但本研究中的样本量较少且研究层面仅限于代谢                                glucosyltransferase (UFGT) gene sequences between white
                                                                 grapes ( Vitis vinifera ) and their sports with red skin
            组学ꎬ上述基因并未在红花深山含笑中进行验证ꎮ
                                                                 [J]. Plant Scienceꎬ 160(3): 543-550.
            为探究红花深山含笑花青素类物质和功能基因的
                                                               LANG X Aꎬ LI Nꎬ LI L Fꎬ et al.ꎬ 2019. Integrated metabolome
            关联ꎬ后续需进一步开展转录组学和功能基因鉴                                and transcriptome analysis uncovers the role of anthocyanin
            定等研究ꎮ                                                metabolism in Michelia maudiae [J]. International Journal of
                 本研究利用靶向代谢组学技术对深山含笑和                             Genomicsꎬ 2019: 4393905.
                                                               LIM S Hꎬ PARK Bꎬ KIM D Hꎬ et al.ꎬ 2020. Cloning and
            红花深山含笑的花瓣中的花青素类物质进行了检
                                                                 functional characterization of dihydroflavonol 4 ̄reductase
            测ꎬ共鉴定出 27 种代谢物ꎬ其中 3 种共有差异代                           gene involved in anthocyanin biosynthesis of Chrysanthemum
            谢物显著富集ꎬ分析了花青素在不同花色花瓣中                                [ J ].  International  Journal  of  Molecular  Sciencesꎬ
            的累积规律ꎬ探究了红花深山含笑红色深度与特                                21(21): 7960.
                                                               LIU Hꎬ REN Yꎬ LIN B Gꎬ et al.ꎬ 2021. Dissection of petal
            定花色苷种类和含量之间的关联性ꎮ 本研究结果
                                                                 pigment components in colored rapeseed (Brasscia napu L.)
            为后续开展红花深山含笑花色呈色机理研究提供                                genotypes [J]. Journal of Nuclear Agricultural Sciencesꎬ 35
            了参考ꎬ为花色遗传育种提供了一定的科学依据ꎮ                               (4): 837-845. [柳寒ꎬ 任韵ꎬ 林宝刚ꎬ 等ꎬ 2021. 彩色油
                                                                 菜花瓣色素成分研究 [J]. 核农学报ꎬ 35(4): 837-845.]
                                                               NAVARRO ̄REIG Mꎬ JAUMOT Jꎬ GARCÍA ̄REIRIZ Aꎬ et al.ꎬ
            参考文献:                                                2015. Evaluation of changes induced in rice metabolome by
                                                                 Cd and Cu exposure using LC ̄MS with XCMS and MCR ̄ALS
                                                                 data analysis strategies [ J]. Analytical and Bioanalytical
            CHEN S Mꎬ LI C Hꎬ ZHU X Rꎬ et al.ꎬ 2012. The identification
                                                                 Chemistryꎬ 407(29): 8835-8847.
               of flavonoids and the expression of genes of anthocyanin
                                                               SANG X Dꎬ YANG X Hꎬ XU Bꎬ et al.ꎬ 2024. Analysis on
               biosynthesis in the Chrysanthemum flowers [ J]. Biologia
                                                                 differences in anthocyanins of Hibiscus rosa ̄sinensi with
               Plantarumꎬ 56(3): 458-464.
                                                                 different flower colors based on targeted metabolomics
            DAI S Lꎬ HONG Yꎬ 2016. Molecular breeding for flower colors
                                                                 [J]. Guangdong Agricultural Sciencesꎬ 51(8): 61-70. [桑
               modification on ornamental plants based on the mechanism of
                                                                 贤东ꎬ 杨晓慧ꎬ 徐斌ꎬ 等ꎬ 2024. 基于靶向代谢组学分析
               anthocyanins biosynthesis and coloration [ J ]. Scientia
                                                                 不同花色大红花花青素的差异 [J]. 广东农业科学ꎬ
               Agricultura Sinicaꎬ 49(3): 529 - 542. [ 戴 思 兰ꎬ 洪 艳ꎬ
               2016. 基于花青素苷合成和呈色机理的观赏植物花色改                       51(8): 61-70.]
                                                               SMITH C Aꎬ WANT E Jꎬ O′MAILLE Gꎬ et al.ꎬ 2006. XCMS:
               良分子育种 [J]. 中国农业科学ꎬ 49(3): 529-542.]
            DU Hꎬ LAI L Mꎬ WANG Fꎬ et al.ꎬ 2018. Characterisation of  processing mass spectrometry data for metabolite profiling
               flower  colouration  in  30  Rhododendron  species  via  using nonlinear peak alignmentꎬ matchingꎬ and identification
               anthocyanin and flavonol identification and quantitative traits  [J]. Analytical Chemistryꎬ 78(3): 779-787.
               [J]. Plant Biologyꎬ 20(1): 121-129.             SUN J Xꎬ ZHANG Yꎬ HU X Sꎬ et al.ꎬ 2009. Structural stability
            FAN J Cꎬ YI T Pꎬ LUO Z Zꎬ 2009. A new variety of Michelia  and degradation mechanisms of anthocyanins [ J]. Scientia
                                                                 Agricultura Sinicaꎬ 42(3): 996-1008. [孙建霞ꎬ 张燕ꎬ 胡
               Linn ( Magnoliaceae) in China [ J]. Journal of Sichuan
               Forestry Science and Technologyꎬ 30(4): 68. [范继才ꎬ 易  小松ꎬ 等ꎬ 2009. 花色苷的结构稳定性与降解机制研究进
               同培ꎬ 罗 泽 治ꎬ 2009. 我 国 木 兰 科 含 笑 属 一 新 变 种          展 [J]. 中国农业科学ꎬ 42(3): 996-1008.]
               [J]. 四川林业科技ꎬ 30(4): 68.]                        SUNIL Lꎬ SHETTY N Pꎬ 2022. Biosynthesis and regulation of
            GAGNEBIN Yꎬ TONOLI Dꎬ LESCUYER Pꎬ et al.ꎬ 2017.      anthocyanin pathway genes [J]. Applied Microbiology and
               Metabolomic analysis of urine samples by UHPLC ̄QTOF ̄  Biotechnologyꎬ 106(5): 1783-1798.
               MS: Impact of normalization strategies [ J ]. Analytica  TANAKA Yꎬ OHMIYA Aꎬ 2008. Seeing is believing:
               Chimica Actaꎬ 955: 27-35.                         engineering  anthocyanin  and  carotenoid  biosynthetic
            HE Jꎬ GIUSTI M Mꎬ 2010. Anthocyanins: natural colorants  pathways [J]. Current Opinion in Biotechnologyꎬ 19(2):
               with health ̄promoting properties [ J]. Annual Review of  190-197.
               Food Science and Technologyꎬ 1: 163-187.        TENG C Lꎬ YANG X Hꎬ DENG Cꎬ et al.ꎬ 2022. Research on
            HONG H Tꎬ NETZEL M Eꎬ O′ HARE T Jꎬ et al.ꎬ 2020.     color traits of Royal Horticultural Society Color Chart and its
   123   124   125   126   127   128   129   130   131   132   133