Cloning and Functional Characterization of Promoter Elements of the D Hordein Gene from the Barley (Hordeum vulgare L.) by Bioinformatic Tools
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Cloning and Functional Characterization of Promoter Elements of the D Hordein Gene from the Barley (Hordeum vulgare L.) by Bioinformatic Tools

Authors: Kobra Nalbandi, Bahram Baghban Kohnehrouz, Khalil Alami Saeed

Abstract:

The low level of foreign genes expression in transgenic plants is a key factor that limits plant genetic engineering. Because of the critical regulatory activity of the promoters on gene transcription, they are studied extensively to improve the efficiency of the plant transgenic system. The strong constitutive promoters, such as CaMV 35S promoter and Ubiqutin 1 maize are usually used in plant biotechnology research. However the expression level of the foreign genes in all tissues is often undesirable. But using a strong seed-specific promoter to limit gene expression in the seed solves such problems. The purpose of this study is to isolate one of the seed specific promoters of Hordeum vulgare. So one of the common varieties of Hordeum vulgare in Iran was selected and their genomes extracted then the D-Hordein promoter amplified using the specific designed primers. Then the amplified fragment of the insert cloned in an appropriate vector and then transformed to E. coli. At last for the final admission of accuracy the cloned fragments sent for sequencing. Sequencing analysis showed that the cloned fragment DHPcontained motifs; like TATA box, CAAT-box, CCGTCC-box, AMYBOX1 and E-box etc., which constituted the seed-specific promoter activity. The results were compared with sequences existing in data banks. D-Hordein promoters of Alger has 99% similarity at 100 % coverage. The results also showed that D-Hordein promoter of barley and HMW promoter of wheat are too similar.

Keywords: Barley, Seed specific promoter, Hordein.

Digital Object Identifier (DOI): doi.org/10.5281/zenodo.1326791

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References:


[1] M. B. Sorensen, V. Cameron-Mills, A. Brandt A, "Transcriptional and post transcriptional regulation of gene expression in developing barley endosperm,” Mol. Gen. Genet., vol. 217, pp. 195–201, 1989.
[2] PR. Shewry, C. Brennan, AS. Tatham, T. Warburton, R Fido, D. Smith, D. Griggs, I. Cantrell, N. Harris, "The development, structure and composition of the barley grainin relation to its end use properties, ” In: Cereals 96. Proceedings of the 46th Australian Cereal Chemistry Conference, Sydney, September 1996, pp 158–162, 1996.
[3] L. Tecsi, HF. Darlington, N. Harris, PR. Shewry, "Patterns of protein deposition and distribution in developing and mature barley grain,” In: Barley genetics, VIII. Proceedings of the 8th International Barley Genetics Symposium, Adelaide, Australia, vol. 2, pp266–268, 2000.
[4] PR. Shewry, M. Kreis, S. Parmar, E.J.L. Lew, D.D. Kasarda D.D, "Identification of g-type hordeins in barley”, Federation of European Biochemical Societies Letter, vol.190, pp 61–64, 1985.
[5] M. Kreis, PR. Shewry, "The control of protein synthesis in developing barley seeds. In: Barley”, Genetics, Biochemistry, Molecular Biology and Biotechnology, CAB International, Wallingford, pp. 319–334, 1992.
[6] PR. Shewry, JA. Napier, AS. Tatham, "seed storage proteins: structures and biosynthesis”, Plant Cell. vol.7, pp 945–956, 1995.
[7] MA. Saghai-Maroof, K. Soliman, RA. Jorgensen, RW. Allard, "Ribosomal DNA spacer length polymorphisms in barley: Mendelian inheritance, chromosomal location, and population dynamics”, PNAS. vol.81, pp 8014-8018, 1984.
[8] E. Logemann, M. Parniske, K. Hahlbrock, "Modes of expression and common structural features of the complete phenylalanine ammonialyase gene family in parsley”, ProcNatlAcadSci USA, vol. 92, pp 5905-5909, 1995.
[9] R. Gelinas, B. Endlich, C. Pfeiffer, M. Yagi, G. Stamatoyannopoulos, "G to A substitution in the distal CCAAT box of the A2-globin gene in Greek hereditary persistence of fetal haemoglobin”, Nature, vol. 313, pp 323-325, 1985.
[10] M. Rieping, F. Schoffl, " Common sequence found in the 5'-non-coding regions of eukaryotic genes; "CCAAT box" found in the promoter of heat shock protein genes; Located immediately upstream from the most distal HSE of the promoter; "CCAAT box" act cooperatively with HSEs to increase the hs promoter activity”, Mol. Gen. Genet, vol. 231, pp 226-232, 1992.
[11] T. Ito, Y. Fujimoto, T. Nakayama, M. Iwabuchi , "A far-upstream sequence of the wheat (Triticum sp.) histone H3 promoter functions differently in rice (Oryza sativa) and tobacco (Nicotiana tabacum) cultured cells”, Plant Cell Physiol, vol.36, pp 1281-1289, 1995.
[12] A. Shirsat, N. Wilford, R. Croy, D. Boulter , "Sequences responsible for the tissue specific promoter activity of a pea legumin gene in tobacco”,Mol Gen Genet, vol. 215, pp 326-331, 1989.
[13] D. Edwards, J.A.H. Murray, A.G. Smith, "Multiple Genes Encoding the Conserved CCAAT-Box Transcription Factor Complex Are Expressed in Arabidopsis”, Plant Phys, vol. 117, pp 1015-1022, 1998.
[14] C. Wu, H. Washida, Y. Onodera, K. Harada, F.Takaiwa, "Quantitative nature of the Prolamin-box, ACGT and AACA motifs in a rice glutelin gene promoter: minimal cis-element requirements for endospermspecific gene expression”, The Plant Journal, vol. 23, pp 415-421, 2000.
[15] V.L. Chandler, H. Vaucheret H," Gene Activation and Gene Silencing. ”, Plant Physiol, vol. 125, pp 145-148, 2001.
[16] B.L. Davison, J.M. Egly, ER. Mulvihill, P. Chambon P., "Formation of stable preinitiation complexes between eukaryotic class B transcription factors and promoter sequences”, Nature, vol. 301, pp680-686,1983.
[17] V.L. Singer, C.R. Wobbe, K. Struhl K, "A wide variety of DNA sequences can functionally replace a yeast TATA element for transcriptional activation”, Genes Dev, vol. 4, pp. 636-645, 1990.
[18] S. Hahn, S. Buratowski, P.A. Sharp, L. Guarente, "Yeast TATA-binding protein TFIID binds to TATA elements with both consensus and nonconsensus DNA sequences”, Proc. Natl. Acad.Sci. U.S.A, vol. 86, pp 5718-5722, 1989.
[19] S.T. Smale, D. Baltimore, "The initiator as a transcription control element”, Cell, vol. 57, pp 103-113, 1989.
[20] C. Sun, P. Sathish, S. Ahlandsberg, C. Jansson, "The Two Genes Encoding Starch-Branching Enzymes IIa and IIb Are Differentially Expressed in Barley1”,Plant Physiol, vol. 118, pp 37-49, 1998.
[21] N. Huang, TD. Sutliff, JC. Litts, Z. Rodrigue, "Classification and characterization of the rice alpha-amylase multigene family”, Plant MolBiol, vol.14, pp 655-668, 1990.
[22] M. Ellerstrom, K. Stalberg, I. Ezcurra, L. Rask, "Functional dissection of a napin gene promoter: identification of promoter elements required for embryo and endosperm-specific transcription”, Plant MolBiol, vol. 32, pp 1019-1027, 1996.
[23] MEE. Watson, "Compilation of published signal sequences”,Nucleic. Acids Research, vol. 12, pp 5145-5164, 1984.
[24] J. A. Matthews, BJ. Miflin, "In vitro synthesis of barley storage proteins”,Planta, vol. 149, pp 262-268,1980.
[25] V. Cameron-Mills, "The structure and composition of protein bodies purified from barley endosperm by silica sol density gradients”, Carlsberg Research Communications, vol. 45, pp 557-576, 1980.
[26] D. Zavallo, BM. Lopez, H. Esteban Hopp, R. Heinz, " Isolation and functional characterization of two novel seed-specific promoters from sunflower (Helianthus annuus L.) ”, Plant Cell Rep, vol. 29, pp 239–248, 2010.