Publication:
Optimisation of electroporation and lipofection protocols to derive the black tiger shrimp cell line (Penaeus monodon)

dc.contributor.authorThansa K.
dc.contributor.authorRungsiwiwut R.
dc.contributor.authorKitiyanant N.
dc.contributor.authorTaengchaiyaphum S.
dc.date.accessioned2021-04-05T03:05:32Z
dc.date.available2021-04-05T03:05:32Z
dc.date.issued2018
dc.date.issuedBE2561
dc.description.abstractTo achieve in creating permanent shrimp cell lines, cellular arrest of primary cells in the culture is needed to be firstly solved. Considering the insertion of some markers affecting cellular proliferation into primary haemocytes in order to produce the black tiger shrimp cell line and the very low percent of transduced cells previously reported in penaeid shrimps, these paved us the way to set up suitable gene delivery protocols to increase percent of transduced cells in the shrimp as our primary aim. In this study, electroporation and lipofection were used to transfer construct plasmids (pLL3.7 plasmids containing CMV promoters and pGL-IE1-126(A)-EGFP plasmids carrying WSSV IE1 promoters) into primary haemocytes. As it was difficult to distinguish between cells expressing EGFP signal and auto-fluorescence of many dead cells occurred by electroporation during the first 72 h of experiment; so, only lipofection was managed to deliver plasmids into primary cells. Surprisingly, numbers of suspected proliferative cells were derived after electroporation with no insertion of immortalising markers. These cells survived in vitro for up to 45 days with high rate of cell viability, but the number of viable cells decreased throughout the experiment. In addition, these cells expressed genes and proteins closely related to hyaline cells determined using RT-PCR and western blot. For the lipofection experiment, no green fluorescence signal was detected in any primary cell introduced with these plasmids, suggesting that plasmids were not successfully inserted into cells. Also, a number of primary haemocytes had the apoptotic cell death characteristic within 5 days after lipofection. These possibly result from using inappropriate lipofection protocol and chemical substances. In summary, finding out suitable protocols to elevate the percent of transduced cells is still necessary. Additionally, continuous shrimp cell lines would be possibly established by transforming suspected proliferative cells derived from electroporation in this study. © 2018 Elsevier Ltd
dc.format.mimetypeapplication/pdf
dc.identifier.citationFish and Shellfish Immunology. Vol 81, No. (2018), p.204-213
dc.identifier.doi10.1016/j.fsi.2018.07.030
dc.identifier.issn10504648
dc.identifier.other2-s2.0-85049844332
dc.identifier.urihttps://hdl.handle.net/20.500.14740/5837
dc.rights.holderมหาวิทยาลัยศรีนครินทรวิโรฒ
dc.subject.otherBiological marker
dc.subject.otherChemical compound
dc.subject.otherEnhanced green fluorescent protein
dc.subject.otherHyalin
dc.subject.otherPlasmid DNA
dc.subject.otherProtein
dc.subject.otherComplementary DNA
dc.subject.otherEnhanced green fluorescent protein
dc.subject.otherGreen fluorescent protein
dc.subject.otherAnimal cell
dc.subject.otherAnimal experiment
dc.subject.otherArticle
dc.subject.otherAutofluorescence
dc.subject.otherBlood cell
dc.subject.otherCell count
dc.subject.otherCell death
dc.subject.otherCell immortalization
dc.subject.otherCell line
dc.subject.otherCell proliferation
dc.subject.otherCell viability
dc.subject.otherControlled study
dc.subject.otherCytomegalovirus
dc.subject.otherElectroporation
dc.subject.otherFemale
dc.subject.otherGene construct
dc.subject.otherGene expression
dc.subject.otherGenetic transfection
dc.subject.otherIn vitro study
dc.subject.otherIn vivo study
dc.subject.otherLipofection
dc.subject.otherMale
dc.subject.otherNonhuman
dc.subject.otherNonviral gene delivery system
dc.subject.otherPenaeus monodon
dc.subject.otherPlasmid
dc.subject.otherPrimary cell
dc.subject.otherPriority journal
dc.subject.otherProcess optimization
dc.subject.otherPromoter region
dc.subject.otherProtein expression
dc.subject.otherReverse transcription polymerase chain reaction
dc.subject.otherSignal transduction
dc.subject.otherWestern blotting
dc.subject.otherWhite spot syndrome virus
dc.subject.otherAnimal
dc.subject.otherBlood cell
dc.subject.otherElectroporation
dc.subject.otherGene transfer
dc.subject.otherGenetics
dc.subject.otherHEK293 cell line
dc.subject.otherHuman
dc.subject.otherImmediate early gene
dc.subject.otherPenaeidae
dc.subject.otherVirus gene
dc.subject.otherAnimals
dc.subject.otherCell Line
dc.subject.otherCytomegalovirus
dc.subject.otherDNA, Complementary
dc.subject.otherElectroporation
dc.subject.otherFemale
dc.subject.otherGene Transfer Techniques
dc.subject.otherGenes, Immediate-Early
dc.subject.otherGenes, Viral
dc.subject.otherGreen Fluorescent Proteins
dc.subject.otherHEK293 Cells
dc.subject.otherHemocytes
dc.subject.otherHumans
dc.subject.otherMale
dc.subject.otherPenaeidae
dc.subject.otherPlasmids
dc.subject.otherPromoter Regions, Genetic
dc.titleOptimisation of electroporation and lipofection protocols to derive the black tiger shrimp cell line (Penaeus monodon)
dc.typeArticle
dspace.entity.typePublication
swu.datasource.scopushttps://www.scopus.com/inward/record.uri?eid=2-s2.0-85049844332&doi=10.1016%2fj.fsi.2018.07.030&partnerID=40&md5=d69f508c481d14082a7c525f4db3bc64

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