高温胁迫下草莓‘Sachinoka’果实成熟过程中花青素含量差异及花青素生物合成基因的表达

Q3 Agricultural and Biological Sciences
Keisuke Okutsu, K. Matsushita, T. Ikeda
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引用次数: 7

摘要

果实颜色是影响果实品质的重要因素。花青素是一种常见的色素,积累在许多水果中,包括葡萄、苹果和草莓。它们的生物合成调控已被广泛而频繁地研究(review in Jaakola, 2013)。其中,UFGT (UDP-glucose: flavonoids 3-O-glucosyltransferase)在葡萄花青素的生物合成中起着重要作用(Boss等,1996;Kobayashi, 2009), FaMYB10调控草莓中FaUFGT的表达(Medina-Puche et al., 2014;Kadomura-Ishikawa et al., 2015)。众所周知,花青素在果实中的积累受温度的影响,当果实在高温下生长时,花青素的积累会减少(Saure, 1990;Ikeda et al., 2011)。最近,我们证明在高温下生长的草莓' Sachinoka '果实中花青素浓度和与花青素生物合成相关的基因表达降低(Matsushita et al., 2016)。在葡萄中,高温通过降低UFGT的活性来抑制花青素的积累(Mori et al., 2004)。在苹果中,迅速降低了R2R3MYB转录因子(TF)基因(MYB10)的表达,该基因调节了红色皮肤颜色的协调(Lin-Wang et al., 2011)。尽管高温胁迫可能在水果着色过程中的任何时候发生,但已发表的研究表明,在整个着色期间,高温对花青素生物合成的影响(Mori et al., 2004;Matsushita et al., 2016),但在不同的成熟阶段没有。有两项研究考察了温度对葡萄和玫瑰着色的影响:Yamane等人(2006)在20和30°C下进行了为期2周的处理,研究了着色的温度敏感阶段和温度对花青素积累影响的机制。然后,他们阐明了第三阶段(开始着色后的一到三周)是“Aki Queen”浆果皮中花青素积累最敏感的阶段。Dela等人(2003)描述了瞬态高温对“美洲虎”玫瑰花青素浓度和组成的影响,并表明虽然1 d高温处理(39/18°C昼夜)对色素沉着没有影响,但3 d高温处理由于减少了花青素的积累,对色素沉着有实质性影响。然而,在不同着色期施用高温对草莓花色苷的影响以及花色苷浓度与草莓花色苷生物合成相关基因表达关系的研究尚未见报道。因此,我们设计了两个实验来探讨这一点。实验1考察了高温(30/15℃)对不同着色阶段花青素生物合成的影响。实验二考察了高温对不同上色期和熟透期果实的影响。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Differential Anthocyanin Concentrations and Expression of Anthocyanin Biosynthesis Genes in Strawberry ‘Sachinoka’ during Fruit Ripening under High-temperature Stress
Fruit color is an important factor in fruit quality. Anthocyanins are common pigments that accumulate in many fruits, including grape, apple, and strawberry. The regulation of their biosynthesis has been studied widely and frequently (review in Jaakola, 2013). In particular, UFGT (UDP-glucose: flavonoid 3-O-glucosyltransferase) plays an important role in anthocyanin biosynthesis in grape (Boss et al., 1996; Kobayashi, 2009), and FaMYB10 regulates the expression of FaUFGT in strawberry (Medina-Puche et al., 2014; Kadomura-Ishikawa et al., 2015a). It is well known that anthocyanin accumulation in fruits is affected by temperature, and is decreased when fruits are grown at high temperature (Saure, 1990; Ikeda et al., 2011). Recently, we demonstrated that the anthocyanin concentration and the expression of genes related to anthocyanin biosynthesis decreased in strawberry ‘Sachinoka’ fruits grown at high temperature (Matsushita et al., 2016). In grape, high temperature inhibits anthocyanin accumulation by reducing the activity of UFGT (Mori et al., 2004). In apple, rapidly reduces the expression of the R2R3MYB transcription factor (TF) gene (MYB10), which regulates the coordination of red skin coloration (Lin-Wang et al., 2011). Although high temperature stress could occur at any time during fruit coloring, published studies of the effect on anthocyanin biosynthesis applied high temperature throughout the coloring period (Mori et al., 2004; Matsushita et al., 2016), but not at different ripening stages. There are two studies examined the effect of temperature on coloring in grapes and rose: Yamane et al. (2006) investigated the temperature-sensitive stages for coloration and the mechanisms that underlie the effect of temperature on anthocyanin accumulation using 2-week treatments at 20 and 30°C. Then, they elucidated that stage3 (from one to three weeks after the onset of coloring) is the most sensitive for anthocyanin accumulation in the berry skins of ‘Aki Queen’. Dela et al. (2003) described the effect of transient high temperature on the concentration and composition of anthocyanins in ‘Jaguar’ rose flowers, and showed that although a 1-d high temperature treatment (39/18°C day/ night) had no effect on pigmentation, a 3-d treatment had a substantial effect on pigmentation due to decreasing anthocyanin accumulation. However, we cannot find any report of the effect of applying high temperature at different coloring stages or of the relationship between anthocyanin concentration and the expression of genes related to anthocyanin biosynthesis in strawberry. Therefore, we designed two experiments to explore this. Experiment 1 investigated the influence of high air temperature (30/15°C) on anthocyanin biosynthesis at different coloring stages. Experiment 2 examined the effect of high air temperature in fruits exposed to the high temperature at different coloring stages and harvested when fully ripe.
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来源期刊
Environmental Control in Biology
Environmental Control in Biology Agricultural and Biological Sciences-Agronomy and Crop Science
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