Please use this identifier to cite or link to this item: https://doi.org/10.1371/journal.pone.0137255
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dc.titleHuman mesenchymal stem cells retain multilineage differentiation capacity including neural marker expression after extended in vitro expansion
dc.contributor.authorOkolicsanyi R.K.
dc.contributor.authorCamilleri E.T.
dc.contributor.authorOikari L.E.
dc.contributor.authorYu C.
dc.contributor.authorCool S.M.
dc.contributor.authorVan Wijnen A.J.
dc.contributor.authorGriffiths L.R.
dc.contributor.authorHaupt L.M.
dc.date.accessioned2019-11-06T01:27:03Z
dc.date.available2019-11-06T01:27:03Z
dc.date.issued2015
dc.identifier.citationOkolicsanyi R.K., Camilleri E.T., Oikari L.E., Yu C., Cool S.M., Van Wijnen A.J., Griffiths L.R., Haupt L.M. (2015). Human mesenchymal stem cells retain multilineage differentiation capacity including neural marker expression after extended in vitro expansion. PLoS ONE 10 (9) : e0137255. ScholarBank@NUS Repository. https://doi.org/10.1371/journal.pone.0137255
dc.identifier.issn19326203
dc.identifier.urihttps://scholarbank.nus.edu.sg/handle/10635/161489
dc.description.abstractThe suitability of human mesenchymal stem cells (hMSCs) in regenerative medicine relies on retention of their proliferative expansion potential in conjunction with the ability to differentiate toward multiple lineages. Successful utilisation of these cells in clinical applications linked to tissue regeneration requires consideration of biomarker expression, time in culture and donor age, as well as their ability to differentiate towards mesenchymal (bone, cartilage, fat) or non-mesenchymal (e.g., neural) lineages. To identify potential therapeutic suitability we examined hMSCs after extended expansion including morphological changes, potency (stemness) and multilineage potential. Commercially available hMSC populations were expanded in vitro for > 20 passages, equating to > 60 days and > 50 population doublings. Distinct growth phases (A-C) were observed during serial passaging and cells were characterised for stemness and lineage markers at representative stages (Phase A: P+5, approximately 13 days in culture; Phase B: P+7, approximately 20 days in culture; and Phase C: P+13, approximately 43 days in culture). Cell surface markers, stem cell markers and lineage-specific markers were characterised by FACS, ICC and Q-PCR revealing MSCs maintained their multilineage potential, including neural lineages throughout expansion. Co-expression of multiple lineage markers along with continued CD45 expression in MSCs did not affect completion of osteogenic and adipogenic specification or the formation of neuro-spheres. Improved standardised isolation and characterisation of MSCs may facilitate the identification of biomarkers to improve therapeutic efficacy to ensure increased reproducibility and routine production of MSCs for therapeutic applications including neural repair. Copyright: © 2015 Okolicsanyi et al.
dc.rightsAttribution 4.0 International
dc.rights.urihttp://creativecommons.org/licenses/by/4.0/
dc.sourceUnpaywall 20191101
dc.subject5' nucleotidase
dc.subjectbeta1 integrin
dc.subjectCD146 antigen
dc.subjectCD200 antigen
dc.subjectCD24 antigen
dc.subjectCD45 antigen
dc.subjectCD56 antigen
dc.subjectendoglin
dc.subjectHermes antigen
dc.subjectkruppel like factor 4
dc.subjectThy 1 antigen
dc.subjecttranscription factor HES 1
dc.subjecttranscription factor PAX3
dc.subjecttranscription factor PAX9
dc.subjecttranscription factor Sox5
dc.subjecttranscription factor Sox6
dc.subjecttranscription factor Sox9
dc.subjectbiological marker
dc.subjectCD45 antigen
dc.subjecttranscription factor
dc.subjectadipocyte
dc.subjectadipogenesis
dc.subjectadult
dc.subjectArticle
dc.subjectbone development
dc.subjectcell differentiation
dc.subjectcell expansion
dc.subjectcell growth
dc.subjectcell lineage
dc.subjectcontrolled study
dc.subjectfemale
dc.subjectfluorescence activated cell sorting
dc.subjectgene expression
dc.subjecthuman
dc.subjecthuman cell
dc.subjectimmunocytochemistry
dc.subjectin vitro study
dc.subjectmale
dc.subjectmesenchymal stem cell
dc.subjectneural stem cell
dc.subjectosteoblast
dc.subjectpolymerase chain reaction
dc.subjectprotein expression
dc.subjectquantitative analysis
dc.subjectstem cell culture
dc.subjectyoung adult
dc.subjectcell culture
dc.subjectcell lineage
dc.subjectcell membrane
dc.subjectcell proliferation
dc.subjectcell shape
dc.subjectcytology
dc.subjectflow cytometry
dc.subjectgene expression profiling
dc.subjectgene expression regulation
dc.subjectmesenchymal stroma cell
dc.subjectmetabolism
dc.subjectmulticellular spheroid
dc.subjectnerve cell
dc.subjectWestern blotting
dc.subjectAdipogenesis
dc.subjectAntigens, CD45
dc.subjectBiomarkers
dc.subjectBlotting, Western
dc.subjectCell Differentiation
dc.subjectCell Lineage
dc.subjectCell Membrane
dc.subjectCell Proliferation
dc.subjectCell Shape
dc.subjectCells, Cultured
dc.subjectFlow Cytometry
dc.subjectGene Expression Profiling
dc.subjectGene Expression Regulation
dc.subjectHumans
dc.subjectMesenchymal Stromal Cells
dc.subjectNeurons
dc.subjectOsteogenesis
dc.subjectSpheroids, Cellular
dc.subjectTranscription Factors
dc.typeArticle
dc.contributor.departmentORTHOPAEDIC SURGERY
dc.description.doi10.1371/journal.pone.0137255
dc.description.sourcetitlePLoS ONE
dc.description.volume10
dc.description.issue9
dc.description.pagee0137255
dc.published.statePublished
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