A STRATEGY FOR DEVELOPMENT OF MICROSATELLITE MARKERS FOR LESS STUDIED ORGANISMS BASED ON EST-SSRS OF WELL STUDIED ORGANISMS WITHIN SAME FAMILY: CASE STUDY ON (PROSOPIS JULIFLORA L.) LEGUME PLANT

ADNAN A.S. AL-ASBAHI1*, FATIMA AHMED ALHADI2
1Department of Biology (Biotechnology and Molecular Genetics), Faculty of Sciences, Sana’a University, P. O. Box 14686, Sana’a, Republic of Yemen
2Department of Biology (Plant Physiology-Ecology), Faculty of Sciences, Sana’a University, Sana’a, Republic of Yemen
* Corresponding Author : adnanasbahi@yahoo.com

Received : 20-11-2010     Accepted : 14-12-2010     Published : 04-04-2011
Volume : 2     Issue : 1       Pages : 11 - 20
J Crop Sci 2.1 (2011):11-20
DOI : http://dx.doi.org/10.9735/0976-8920.2.1.11-20

Keywords : Prosopis juliflora, Expressed Sequence Tag (EST), Simple Sequence Repeat (SSR), CAP3 software, Unigenes
Conflict of Interest : None declared

Cite - MLA : ADNAN A.S. AL-ASBAHI and FATIMA AHMED ALHADI "A STRATEGY FOR DEVELOPMENT OF MICROSATELLITE MARKERS FOR LESS STUDIED ORGANISMS BASED ON EST-SSRS OF WELL STUDIED ORGANISMS WITHIN SAME FAMILY: CASE STUDY ON (PROSOPIS JULIFLORA L.) LEGUME PLANT ." Journal of Crop Science 2.1 (2011):11-20. http://dx.doi.org/10.9735/0976-8920.2.1.11-20

Cite - APA : ADNAN A.S. AL-ASBAHI, FATIMA AHMED ALHADI (2011). A STRATEGY FOR DEVELOPMENT OF MICROSATELLITE MARKERS FOR LESS STUDIED ORGANISMS BASED ON EST-SSRS OF WELL STUDIED ORGANISMS WITHIN SAME FAMILY: CASE STUDY ON (PROSOPIS JULIFLORA L.) LEGUME PLANT . Journal of Crop Science, 2 (1), 11-20. http://dx.doi.org/10.9735/0976-8920.2.1.11-20

Cite - Chicago : ADNAN A.S. AL-ASBAHI and FATIMA AHMED ALHADI "A STRATEGY FOR DEVELOPMENT OF MICROSATELLITE MARKERS FOR LESS STUDIED ORGANISMS BASED ON EST-SSRS OF WELL STUDIED ORGANISMS WITHIN SAME FAMILY: CASE STUDY ON (PROSOPIS JULIFLORA L.) LEGUME PLANT ." Journal of Crop Science 2, no. 1 (2011):11-20. http://dx.doi.org/10.9735/0976-8920.2.1.11-20

Copyright : © 2011, ADNAN A.S. AL-ASBAHI and FATIMA AHMED ALHADI, Published by Bioinfo Publications. This is an open-access article distributed under the terms of the Creative Commons Attribution License, which permits unrestricted use, distribution and reproduction in any medium, provided the original author and source are credited.

Abstract

It is widely known that publicly available expressed sequence tags (ESTs) markers for a certain organism, are used for development of simple sequence repeats (SSRs) for that organism. SSRs have been used in a wide range of applications in genetic studies. However, many plants, animals and microbe species have only limited number of (ESTs) markers available in the databases such as, mesquite desert plant species (Prosopis juliflora). Available small amount of ESTs for Prosopis juliflora can be compared with those of well-studied legume species in both less and well-studied species for further analysis and usage as traditional SSR markers for genomic comparative studies with minimal amount of money and time required for genotyping accompanied with high level of transferability and polymorphism than what expected by using anonymous SSR or ESTs derived SSR randomly selected from closely related species or genera. Prosopis juliflora ESTs downloaded from Genbank were clustered into different unigenes, each of which represents ESTs of same and relevant function. Then, they were analyzed for the presence of various SSR classes in these EST unigenes knowm as (EST-SSRs) unigenes in order to assess sequence, length, repetitious folds, distribution and relative abundance of different SSR motifs of mono, di-, tri-, tetra-, and penta-nucleotide contained in these ESTs. Comparative analysis of (EST-SSRs) in Prosopis juliflora with those of well-studied legumes, such as Medicago truncatula, Glycine max and Lotus japonicus resulted in identification the SSR repeat motif categories existing in high frequency rates within those legume species. These SSR regarded as promising SSRs markers used as cross genera were tested in P. juliflora based on primer pairs of anonymous SSR of the well-studied species, Medicago, through PCR that have shown transferability of these markers into P. juliflora as cross-genera SSR markers. The developed anonymous SSR markers of loci across family would offer an opportunity in cheap and fast genotyping of less studied organisms such as Prosopis legume species that suffers from poor genome resources.

References

[1] Ellegren H. (2004) Nature Reviews Genetics, 5(6), 435–445.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[2] Natalya S. (2008) Genome, 51(2), 79-90.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[3] Richards R.I., and Sutherland G.R. (1992) Nature Genetics, 1(1), 7–9.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[4] Weber J.L. (1990) Genomics, 7(4), 524–530.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[5] Wang H., Wei Y., Yan Z. and Zheng Y. (2007) Journal of Applied Genetics, 48(1), 35–42.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[6] Powell W., Machray G. and Provan J. (1996). Trends in Plant Science, 1(7), 215–222.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[7] Bernadette J., Sandrine F., Philippe B., Gaelle C., Sylvain S., Thierry H., and Christian H., (2003) BMC Plant Biology, 3 (2-3), 1-19.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[8] Varshney R., Sigmund R., Borner A., Korzun V., Stein N., Sorrells M., Landridge P. and Graner A. (2005) Plant Science, 168 (x), 195–202. doi:10.1016/j.plantsci.2004.08.001  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[9] Akkaya M.S., Bhagwat A.A. and Cregan P.B. (1992) Genetics, 132(4), 1131–1139.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[10] Bell C.J. and Ecker J.R. (1994) Genomics, 19(1), 137–144.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[11] Brouwer D.J. and Osborn T.C., (1999) Theoretical and Applied Genetics, 99(7-8), 1194-1200.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[12] Wu K.K., Burnquist, W., Sorrells M.E., Tew T.L., Moore P.H. and Tanksley S.D. (1992) Theoretical and Applied Genetics, 83 (3), 294-300.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[13] Morgante M. and Olivieri A.M. (1993) Plant journal, 3 (1), 175–182  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[14] Anderson J. A., Churchill G.A., Autrique J.E., Tanksley S.C. and Sorrells M.E. (1993). Genome, 36(1), 181–186.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[15] Kantety R.V., La Rota M., Matthews D.E. and Sorrells M.E. (2002) Plant Molecular Biology, 48(5-6), 501-510.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[16] Thiel T., Michalek W., Varshney R.K., and Graner A. (2003) Theoretical and Applied Genetics, 106 (3), 411–422.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[17] Saha M.C., Mian M.A., Eujayl I., Zwonitzer J.C., Wang L., May G.D. (2004) Theoretical and Applied Genetics, 109 (4), 7 83–791.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[18] Asp T., Frei U.K., Didion T., Nielsen K., and Lübberstedt T. (2007) BMC Plant Biology, 7 (36). doi, 10.1186/1471-2229-7-36.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[19] Natalya S. (2008) Genome, 51(2), 79-90.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[20] Gupta P., Rustgi S., Sharma S., Singh R., Kumar N. and Balyan H. (2003) Molecular Genetics and Genome, 270 (4), 315–323.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[21] Bhat P.R., Krishnakumar V., Hendre P.S., Rajendrakumar P., Varshney R.K. and Aggarwal R.K. (2005) Molecular Ecology Notes, 5, 80–83. doi: 10.1111/j.1471-8286  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[22] Varshney R.K., Graner A. and Sorrells M.E. (2005) Trends in Biotechnology, 23 (1), 48–55. doi, 10.1016/j.tibtech.2004.11.005.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[23] Parida S.K., Anand R., Kumar K., Dalal V., Singh N.K. and Mohapatra T. (2006) Theoretical and Applied Genetics, 112 (5), 808-817.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[24] Temnykh S., Declerck G., Lukashova A., Lipovich L., Cartinhour S., and McCouch S. (2001) Genome Research, 11(8), 1441-1452.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[25] Fulton T.M., van der Hoeven R., Eannetta N.T., and Tanksley S.D. (2002). Plant Cell, 14 (7), 1457-1467.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[26] Decroocq V., Favé M., Hagen L., Bordenave L. and Decroocq S. (2003) Theoretical and Applied Genetics, 106 (5), 912-922.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[27] Squirrell J., Hollingsworth P.M., Woodhead M., Russell J., Lowe A.J. and Gibby M. (2003) Molecular Ecology, 12(6), 1339–1348.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[28] Zhang L.Y., Bernard M., Leroy P., Feuillet C. and Sourdille P. (2005) Theoretical and Applied Genetics, 111 (4), 677-687.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[29] Huang X., and Madan A. (1999) Genome Research, 9 (9), 868-877.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[30] Doyle J. and Doyle J. (1987) Rapid DNA isolation procedure for small quantities of fresh leaf tissue. Photochemistry Bulletin, 19(1), 11-15.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[31] Cullings K. (1992) Molecular Ecology, 1 (4), 233-240.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[32] Cho Y., Ishii T., Temnykh S., Chen, X., Lipovich L., McCouch S., Park W., Ayres N. and Cartinhour S. (2000) Theoretical and Applied Genetics, 100(5), 713–722.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[33] Gutierrez M.V., Patto M.C., Huguet T., Cubero J.I., Moreno M.T. and Torres A.M. (2005). Theoretical and Applied Genetics, 110 (7), 1210–1217.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[34] Pashley C.H., Ellis J.R., McCauley D. E. and Burke J.M. (2006) Journal of Heredity, 97(4), 381–388.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[35] Liewlaksaneeyanawin C., Ritland C.E., El-Kassaby Y.A. and Ritland K. (2004) Theoretical and Applied Genetics, 109 (2), 361–369.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[36] Ellis J. R., Pashley C.H., Burke J.M. and McCauley D.E. (2006) Molecular Ecology, 15 (9), 2345–2355.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[37] Lehman T. (1996) Genetics, 144 (3), 1155–1163  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[38] Callen D.F., Thompson A.D., Shen Y., Phillips H.A., Richards R.I., Mulley J.C. and Sutherland G.R. (1999) American Journal of Human Genetics, 52 (5), 922–927.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[39] Park Y., Lee I. and Kim N. (2009) Molecules 14(x) , 4546-4569, doi:10.3390/molecules1411454  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[40] Chu H., Hu Y., Wang H.C., and Li J. (2009) Molecular Ecology Resources, 10(1), 150–155.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[41] Ellegren H. (2000) Trends in Genetics, 16 (2), 551–558.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[42] Diwan N., Bhagwat A.A., Bauchan G.B. and Cregan P.B. (1997) Genome, 40 (6), 887-895  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[43] Diwan N., Bouton J.H., Kochert G. and Cregan (2000) Theoretical and Applied Genetics, 101(1-2), 165-172.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[44] Baquerizo-Audiot E., Desplanque B., Prosperi J.M., and Santoni S. (2001) Molecular Ecology Notes, 1(1-2), 1-3.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[45] Julier B., Flajoulot S., Barre P., Cardinet G., Santoni S., Huguet T. and Huyghe C. (2003) BMC Plant Biology, 3(9), 1471-1490.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[46] Eujayl I., Sledge M.K., Wang L., May, G.D., Chekhovskiy K., Zwonitzer J.C. and Mian M.A. (2004) Theoretical and Applied Genetics, 108(3), 414-422.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[47] Badri M., Zitoun A., Ilahi H., Huguet T. and Aouani M.E. (2008) Journal of Genetics, 87 (3), 241-255.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[48] Badri M., Zitoun A., Soula S., Houcine I., Huguet T. and Aouani M.E. (2008) Conservation genetics, 9(6), 1509-1520.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus  

[49] Mun J., Kim D., Choi H., Gish J., Debelle F., Mudge J., Denny R., Endre G., Saurat O., Dudez A., Kiss G., Roe B., Young N. and Cook D. (2006) Genetics, 172 (4): 2541–2555.  
» CrossRef  » Google Scholar  » PubMed  » DOAJ  » CAS  » Scopus