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dc.contributor.advisorAsahina-Jindrová, Masako
dc.contributor.authorFarka, Dominik
dc.date.accessioned2021-12-06T13:41:53Z
dc.date.available2021-12-06T13:41:53Z
dc.date.issued2012
dc.date.submitted2012-05-18
dc.identifier.urihttps://dspace.jcu.cz/handle/20.500.14390/23897
dc.description.abstractCreation of transgenic animals has become a popular method to analyse gene function. In the nematode Ceanorhabditis elegans transformation is widely used and can be achieved by microinjection. For functional analyses, transgene constructs typically contain a promoter driving the expression of the protein of interest that is fused to a fluorescent protein. However, as this fusion of proteins can lead to misfolding of the protein of interest and may not reflect proper function, a modification of the expression vector has been developed; introducing a short sequence of non-coding DNA in-between the sequences of the two proteins and making the construct compatible with a polycistronic operon system. In this study, four different polycistronic constructs were introduced into C. elegans by means of microinjection in order to provide new tools for the analyses of gene function. Tissue specific promoters wrt-2 (seam cells), grl-21 (hyp7), and egl-17 (vulval precursor cells) were used to over-express either NHR-25 or SMO-1 in the corresponding tissues and the expression was visualized by independently translated mCherry red fluorescent. 10 independent transformed C. elegans strains were established and corresponding tissue-specific promoter activities were confirmed. Furthermore, in some cases, ectopic behaviour was observed e.g. ectopic mCherry expression in different tissues or specific cell differentiation defects that was most likely caused by the overexpression of NHR-25 or SMO-1. This study was the first case in our laboratory to generate transformed C. elegans utilizing the polycistronic mCherry vector system. New genetic tools were introduced in the laboratory useful for further analyses of gene function.cze
dc.format28
dc.format28
dc.language.isoeng
dc.publisherJihočeská univerzitacze
dc.rightsBez omezení
dc.subjectpolycistronic systemcze
dc.subjectoperoncze
dc.subjectgeneticscze
dc.subjectmolecular biologycze
dc.subjectC. eleganscze
dc.subjecttransgeniccze
dc.subjectmicroinjectioncze
dc.subjectNHR-25cze
dc.subjectSMO-1cze
dc.subjecttissue specific promoterscze
dc.subjectpolycistronic systemeng
dc.subjectoperoneng
dc.subjectgeneticseng
dc.subjectmolecular biologyeng
dc.subjectC. eleganseng
dc.subjecttransgeniceng
dc.subjectmicroinjectioneng
dc.subjectNHR-25eng
dc.subjectSMO-1eng
dc.subjecttissue specific promoterseng
dc.titleMaking Transgenic <i>C. elegans</i> with Polycistronic mCherry Vectorcze
dc.title.alternativeMaking Transgenic <i>C. elegans</i> with Polycistronic mCherry Vectoreng
dc.typebakalářská prácecze
dc.identifier.stag25942
dc.description.abstract-translatedCreation of transgenic animals has become a popular method to analyse gene function. In the nematode Ceanorhabditis elegans transformation is widely used and can be achieved by microinjection. For functional analyses, transgene constructs typically contain a promoter driving the expression of the protein of interest that is fused to a fluorescent protein. However, as this fusion of proteins can lead to misfolding of the protein of interest and may not reflect proper function, a modification of the expression vector has been developed; introducing a short sequence of non-coding DNA in-between the sequences of the two proteins and making the construct compatible with a polycistronic operon system. In this study, four different polycistronic constructs were introduced into C. elegans by means of microinjection in order to provide new tools for the analyses of gene function. Tissue specific promoters wrt-2 (seam cells), grl-21 (hyp7), and egl-17 (vulval precursor cells) were used to over-express either NHR-25 or SMO-1 in the corresponding tissues and the expression was visualized by independently translated mCherry red fluorescent. 10 independent transformed C. elegans strains were established and corresponding tissue-specific promoter activities were confirmed. Furthermore, in some cases, ectopic behaviour was observed e.g. ectopic mCherry expression in different tissues or specific cell differentiation defects that was most likely caused by the overexpression of NHR-25 or SMO-1. This study was the first case in our laboratory to generate transformed C. elegans utilizing the polycistronic mCherry vector system. New genetic tools were introduced in the laboratory useful for further analyses of gene function.eng
dc.date.accepted2012-06-18
dc.description.departmentPřírodovědecká fakultacze
dc.thesis.degree-disciplineBiological Chemistrycze
dc.thesis.degree-grantorJihočeská univerzita. Přírodovědecká fakultacze
dc.thesis.degree-nameBc.
dc.thesis.degree-programBiochemistrycze
dc.description.gradeDokončená práce s úspěšnou obhajoboucze
dc.contributor.refereeMacůrková, Marie


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