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在长日照和短日照植物的光周期开花调控中,太阳的节律作用。

Solar rhythm in the regulation of photoperiodic flowering of long-day and short-day plants.

机构信息

Jalan Medang Serai, Bukit Bandar Raya, Kuala Lumpur, Malaysia.

出版信息

J Exp Bot. 2013 Jul;64(10):2643-52. doi: 10.1093/jxb/ert130. Epub 2013 May 4.

DOI:10.1093/jxb/ert130
PMID:23645867
Abstract

In photoperiodic flowering, long-day (LD) plants are induced to flower seasonally when the daylight hours are long, whereas flowering in short-day (SD) plants is promoted under short photoperiods. According to the widely accepted external coincidence model, flowering occurs in LD Arabidopsis when the circadian rhythm of the gene CONSTANS (CO) peaks in the afternoon, when it is light during long days but dark when the days are short. Nevertheless, extending this explanation to SD flowering in rice, Oriza sativa, requires LD and SD plants to have 'opposite light requirements' as the CO orthologue in rice, HEADING-DATE1 (Hd1), promotes flowering only under short photoperiods. This report proposes a role of the plant's solar rhythm in promoting seasonal flowering. The interaction between rhythmic genes entrained to the solar clock and those entrained to the circadian clock form the basis of an internal coincidence model that explains both LD and SD flowering equally well. The model invokes no presumption of opposite light requirements between LD and SD plants, and further argues against any specific requirement of either light or darkness for SD flowering. Internal coincidence predicts the inhibition of SD flowering of the rice plant by a night break (a brief interruption of light), while it also provides a plausible explanation for how a judiciously timed night break promotes Arabidopsis flowering even on short days. It is the timing of the light transitions (sunrise and sunset) rather than the duration of light or darkness per se that regulates photoperiod-controlled flowering.

摘要

在光周期开花中,长日照(LD)植物在白天时间长时季节性开花,而短日照(SD)植物在短日照条件下促进开花。根据广泛接受的外部巧合模型,当拟南芥基因 CONSTANS(CO)的昼夜节律在下午达到峰值时,即长日照时白天有光,但短日照时天黑,LD 拟南芥就会开花。然而,将这一解释扩展到水稻,Oriza sativa 的短日照开花,需要 LD 和 SD 植物具有“相反的光照要求”,因为水稻中的 CO 同源物 HEADING-DATE1(Hd1)仅在短日照条件下促进开花。本报告提出了植物的太阳节律在促进季节性开花中的作用。受太阳时钟和昼夜时钟调节的节律基因之间的相互作用构成了内部巧合模型的基础,该模型同样很好地解释了 LD 和 SD 开花。该模型没有假设 LD 和 SD 植物之间存在相反的光照要求,并且进一步反对 SD 开花需要特定的光照或黑暗条件。内部巧合预测了短暂的夜间中断(光照的短暂中断)会抑制水稻的 SD 开花,同时也为合理定时的夜间中断如何促进拟南芥即使在短日照条件下也能开花提供了合理的解释。是光转换(日出和日落)的时间而不是光或黑暗的持续时间本身调节光周期控制的开花。

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