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Metabolomic Changes in Mango Fruit Peel Associated with Chilling Injury Tolerance Induced by Quarantine Hot Water Treatment

机译:与检疫热水处理诱导的冷却损伤耐受性相关的芒果果皮的代谢物变化

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The application of a quarantine hot water treatment (HWT) induces chilling injury (CI) tolerance in mango fruit, but little is known about the mechanisms involved in this tolerance. The aim of this study was to identify metabolomic changes associated with HWT-induced CI tolerance in 'Keitt' mango fruit. Mature green fruit treated with hot water (HWT; 46.1 degrees C, 75-90 min) and non-treated (control) were stored for 20 d at 5 degrees C and ripened for 7 d at 21 degrees C. The incidence of chilling injury symptoms was registered as CI index. Methanol extracts of fruit peels were used for comparative metabolomics analyses by UPLC-DAD-MS and GC-MS. Total phenolics (TP) were analyzed by the Folin-Ciocalteu assay and the antioxidant activity (AA) was measured by ABTS, DPPH, and FRAP methods. HWT provided CI tolerance to mango fruit as evidenced by a low incidence of symptoms. Fifty-two and 14 metabolites were identified by UPLC-DAD-MS and GC-MS, respectively. These metabolites were classified as galloylquinic acids, gallic acid esters, gallotannins, gallic acid derivatives, benzophenone derivatives, xanthones, flavonoids, organic acids, sugars, fatty acids, and other metabolites (myo-inositol). The HWT before cold storage increased the abundance of galloylquinic acids, gallic acid esters, gallotannins, quercetin 3-O-rhamnoside, and myo-inositol; and it decreased the levels of mangiferin, ribose, malic acid, and palmitic acid. After cold storage and ripening, HWT fruit maintained higher levels of galloylquinic acids, gallic acid esters, gallotannins, quercetin 3-O-rhamnoside, mangiferin, myo-inositol, linolenic acid, and sugars than those in control fruit. HWT fruit also had higher values of TP and AA by the three methods. Control fruit had higher levels of citric acid, malic acid, palmitic acid, and ribose, as well as lower unsaturated/saturated fatty acid ratio. The HWT-induced CI tolerance in mango fruit appears to be associated with an increased content of antioxidants and osmoprotectant metabolites and a higher ratio of unsaturated/saturated fatty acids.
机译:检疫热水处理(HWT)的应用诱导芒果果实耐寒损伤(CI)耐受性,但对涉及这种耐受的机制很少。本研究的目的是鉴定与'牛奶植物果实中的HWT诱导的CI耐受性相关的代谢组变化。用热水(HWT; 46.1℃,75-90分钟)和未治疗(对照)处理的成熟绿色果实在5摄氏度下储存20d,并在21℃下成熟7d.冷冻损伤的发生率症状被注册为CI指数。使用UPLC-DAD-MS和GC-MS使用果皮的甲醇提取物用于比较代谢组科分析。通过Folin-Ciocalteu测定分析总酚类(TP),通过ABT,DPPH和FRAP方法测量抗氧化活性(AA)。 HWT为芒果果实提供了CI耐受性,其症状的发病率低。通过UPLC-DAD-MS和GC-MS鉴定52和14个代谢物。这些代谢物被归类为寄生酰基酸,无碱酸酯,加仑胰岛,加仑酸衍生物,二苯甲酮衍生物,x原烷酮,黄酮类化合物,有机酸,糖,脂肪酸等代谢物(Myo-intositol)。冷储存前的HWT增加了戈尔科醌酸,没食子酸酯,加仑,槲皮素3-O-菱形和肌肌醇的丰度;它降低了Mangiferin,核糖,苹果酸和棕榈酸的水平。冷却和成熟后,HWT果实保持较高水平的戈尔科菌酸,无碱酸酯,加仑,槲皮素3-O-rhamnoside,Mangiferin,肌醇,亚麻酸和糖,而不是对照果实。通过三种方法,HWT水果也具有更高的TP和AA值。对照果实具有较高水平的柠檬酸,苹果酸,棕榈酸和核糖,以及较低的不饱和/饱和脂肪酸比。 HWT诱导的芒果果实的CI耐受性似乎与抗氧化剂和Osmoplotectant代谢物的含量增加以及不饱和/饱和脂肪酸的较高比例相关。

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