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油菜 Cry2 基因(CRY2a 和 CRY2b)的鉴定及 BnCRY1 和 BnCRY2a 调控油菜幼苗光形态建成的比较分析。

Characterization of Cry2 genes (CRY2a and CRY2b) of B. napus and comparative analysis of BnCRY1 and BnCRY2a in regulating seedling photomorphogenesis.

机构信息

Department of Plant Molecular Biology & Interdisciplinary Centre for Plant Genomics, University of Delhi South Campus, New Delhi, 110021, India.

Proteus Genomics, 218 Summit Parkway, Birmingham, AL, 35209, USA.

出版信息

Plant Mol Biol. 2022 Sep;110(1-2):161-186. doi: 10.1007/s11103-022-01293-6. Epub 2022 Jul 13.

DOI:10.1007/s11103-022-01293-6
PMID:35831732
Abstract

Cryptochrome 2 (CRY2) perceives blue/UV-A light and regulates photomorphogenesis in plants. However, besides Arabidopsis, CRY2 has been functionally characterized only in native species of japonica rice and tomato. In the present study, the BnCRY2a, generating a relatively longer cDNA and harboring an intron in its 5'UTR, has been characterized in detail. Western blot analysis revealed that BnCRY2a is light labile and degraded rapidly by 26S proteasome when seedlings are irradiated with blue light. For functional analysis, BnCRY2a was over-expressed in Brassica juncea, a related species more amenable to transformation. The BnCRY2a over-expression (BnCRY2a) transgenics developed short hypocotyl and expanded cotyledons, accumulated more anthocyanin in light-grown seedlings, and displayed early flowering on maturity. Early flowering in BnCRY2a transgenics was coupled with the up-regulation of many flowering-related genes such as FT. The present study also highlights the differential light sensitivity of cry1 and cry2 in controlling hypocotyl elongation growth in Brassica. BnCRY2a seedlings developed much shorter hypocotyl under the low-intensity of blue light, while BnCRY1 seedling hypocotyls were shorter under the high-intensity blue light, compared to untransformed seedlings.

摘要

CRY2 感知蓝光/UV-A 光,并调节植物的光形态建成。然而,除了拟南芥之外,CRY2 的功能特征仅在日本大米和番茄的本地种中得到了研究。本研究详细描述了 BnCRY2a,它产生相对较长的 cDNA,并在其 5'UTR 中含有内含子。Western blot 分析表明,当幼苗受到蓝光照射时,BnCRY2a 是光不稳定的,并且会被 26S 蛋白酶体迅速降解。为了进行功能分析,BnCRY2a 在 Brassica juncea 中过表达,后者是一种更易于转化的相关物种。BnCRY2a 过表达(BnCRY2a)转基因植物的下胚轴变短,子叶扩张,在光照下幼苗中积累更多的花青素,并在成熟时提前开花。BnCRY2a 转基因植物的早期开花与许多与开花相关的基因如 FT 的上调有关。本研究还强调了 cry1 和 cry2 在控制 Brassica 下胚轴伸长生长中的不同光敏感性。与未转化的幼苗相比,BnCRY2a 幼苗在低强度蓝光下发育出更短的下胚轴,而 BnCRY1 幼苗在高强度蓝光下下胚轴更短。

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