Cloning of MeCWINV3 Promoter from Cassava and Transient Expression Analysis in Tobacco

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In order to study the inducement pattern and regulating mechanism of MeCWINV3 in Cassava. An 1160 bp promoter region upstream of the MeCWINV3 gene (GenBank Accession No. KC905170) was isolated from Cassava (Manihot esculenta) genomic DNA using PCR methods. Sequence analysis found that it contains typical TATA box and CAAT box, and several cis-acting elements that related plant stress responses, such as ABRE, ARFAT, GAREAT, MYB and MYC transcription factors. Furthermore, transient expression in transgenic tobacco was analyzed by inserting upstream of GUS gene in expressing vector. The results showed that GUS was mainly expressed in tobacco veins. This will be the basis for further investigating the function of the MeCWINV3 gene promoter.

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326-331

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February 2014

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© 2014 Trans Tech Publications Ltd. All Rights Reserved

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[1] Kaimian Li, Xiong Lin, Jie Huang: Chinese Journal of Tropical Agriculture, Vol. 1 (2) (2001), pp.56-60 (In Chinese).

Google Scholar

[2] Xinglu Luo, Minqing Chi, Xiaofeng Huang, Hexia Xie, Feiwu Lu: Chinese Agricultural Science Bulletin, Vol. 22 (8) (2006), pp.289-291(In Chinese).

Google Scholar

[3] N Kocal, U Sonnewald and S Sonnewald: Plant Physiol, Vol. 148 (2008), pp.1523-1536.

Google Scholar

[4] EM Klann, B Hall and AB Bennett: Plant Physiol, Vol. 112 (1996), pp.1321-1330.

Google Scholar

[5] A Sturm and GQ Tang: Trends in Plant Sci, Vol. 4(10) (1999), pp.401-407.

Google Scholar

[6] Bin Liu, Kaimian Li, Qiuhong Pan, and Lijuan Luo: Chi J Trop Crops, Vol. 32(4) (2011), pp.679-683 (In Chinese).

Google Scholar

[7] KB Bonfig, A Gabler, UK Simon, N Luschin-Ebengreuth, M Hatz, S Berger, N Muhammd, J Zeier, AK Sinha and T Roitsch: Mol Plant, Vol. 3(6) (2010), pp.1037-1048.

DOI: 10.1093/mp/ssq053

Google Scholar

[8] Ramloch-Lorenz K, Knudsen S and Sturm A: Plant J, Vol. 4(3) (1993), pp.545-554.

Google Scholar

[9] Zhang L, Cohn NS and Mitchell JP: Plant Physiol, Vol. 112 (1996), pp.1111-1117.

Google Scholar

[10] K Higo, Y Ugawa, M Iwamoto, T Korenaga: NuCl Acid Res, Vol. 27(1) (1999), pp.297-300.

Google Scholar

[11] Hofgen R and Willmitzer L: NuCl Acid Res, Vol. 16 (1988), p.9877.

Google Scholar

[12] Chunxiao Zhang, Wenqi Wang, Xiangning Jiang, Xuemei Chen: Acta Genet Sin, Vol. 31(12) (2004), pp.1455-1464 (In Chinese).

Google Scholar

[13] Jiangdong Xia, Zaiquan Cheng, Yusheng Wu, Pengzhang Ji: J Yunnan Agric Univ, Vol. 21(1) (2006), pp.7-14 (In Chinese).

Google Scholar

[14] Verdonk JC, Shibuya K, Loucas HM: Plant Biotechnol J, Vol. 6(7) (2008), pp.694-701.

Google Scholar

[15] Xiaoling Yu, Baiming Cui, Wei Wen, Shuchang Wang, Ming Peng: Chi J Trop Crops, Vol. 31(8) (2010), pp.1272-1279 (In Chinese).

Google Scholar