Search results for " mesoangioblast"

showing 10 items of 21 documents

Autophagy and apoptosis regolate survival of mesoangioblast stem cells subjected to oxidative stress

2012

Autophagy apoptosis mesoangioblasts oxidative stressSettore BIO/06 - Anatomia Comparata E Citologia
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Stress response in mesoangioblast stem cells

2006

Stem cells are presumed to survive various stresses, since they are recruited to areas of tissue damage and regeneration, where inflammatory cytokines and cytotoxic cells may result in severe cell injury. We explored the ability of mesoangioblasts to respond to different cell stresses such as heat, heavy metals and osmotic stress, by analyzing heat shock protein (HSP)70 synthesis as a stress indicator. We found that the A6 mesoangioblast stem cells constitutively synthesize HSP70 in a heat shock transcription factor (HSF)-independent way. However, A6 respond to heat shock and cadmium treatment by synthesizing HSP70 over the constitutive expression and this synthesis is HSF1 dependent. The e…

Chloramphenicol O-AcetyltransferaseHot TemperatureOsmotic shockRecombinant Fusion ProteinsBlotting WesternHypertonic SolutionsElectrophoretic Mobility Shift AssayBiologyResponse ElementsTransfectionMesodermMiceSTRESS RESPONSE STEM CELLS MOUSE MESOANGIOBLASTS.Heat Shock Transcription FactorsHeat shock proteinMetals HeavyAnimalsRNA MessengerHSF1Promoter Regions GeneticMolecular BiologyCells CulturedMesoangioblastHSC70 Heat-Shock ProteinsCell BiologyTransfectionHematopoietic Stem CellsMolecular biologyCell biologyHsp70Heat shock factorDNA-Binding ProteinsGene Expression RegulationStem cellTranscription Factors
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Hsp70 localizes differently from chaperone Hsc70 in mouse mesoangioblasts under physiological growth conditions

2008

Mouse A6 mesoangioblasts express Hsp70 even in the absence of cellular stress. Its expression and its intracellular localization were investigated under normal growth conditions and under hyperthermic stress. Immunofluorescence assays indicated that without any stress a fraction of Hsp70 co-localized with actin microfilaments, in the cell cortex and in the contractile ring of dividing cells, while the Hsc70 chaperone did not. Hsp70 immunoprecipitation assays confirmed that a portion of Hsp70 binds actin. Immunoblot assays showed that both proteins were present in the nucleus. After heat treatment Hsp70 and actin continued to co-localize in the leading edge of A6 cells but not on microfilame…

Hot TemperatureHistologyPhysiologyImmunoprecipitationHsp70 Hsc70 Mesoangioblastmacromolecular substancesMicrofilamentCell LineMiceStress PhysiologicalCell cortexAnimalsHumansHSP70 Heat-Shock ProteinsActinbiologyStem CellsHSC70 Heat-Shock ProteinsCell BiologyGeneral MedicineActinsGlomerular MesangiumHsp70Cell biologyCell cultureChaperone (protein)biology.proteinCell DivisionCytokinesisMolecular ChaperonesJournal of Molecular Histology
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Hsp70 in mesoangioblast A6 stem cells.

2006

Hsp70 mesoangioblast stem cells
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Hsp70 level regulates MMP2 expression in mesoangioblast stemj cells

2013

Hsp70 mesoangioblasts stem cells MMP2
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Intracellular and extracellular Hsp70 in mouse mesoangioblast stem cells

2008

Hsp70 mouse mesoangioblast stem cell
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Metalloproteasi nella biologia dei mesoangioblasti di topo

2011

MMP Mesoangioblasti NF-kB
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MMP2 synthesis in mouse mesoangioblast stem cells is highly regulated

2012

MMP2 stem cells mesoangioblastsSettore BIO/06 - Anatomia Comparata E Citologia
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Autocrine role of extracellular Hsp70 in mesoangioblast migration capability

2014

Migration Mesoangioblast Hsp70
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High-density ZnO Nanowires as a Reversible Myogenic-Differentiation-Switch

2018

Mesoangioblasts are outstanding candidates for stem-cell therapy and are already being explored in clinical trials. However, a crucial challenge in regenerative medicine is the limited availability of undifferentiated myogenic progenitor cells because growth is typically accompanied by differentiation. Here reversible myogenic-differentiation switching during proliferation is achieved by functionalizing the glass substrate with high-density ZnO nanowires (NWs). Specifically, mesoangioblasts grown on ZnO NWs present a spherical viable undifferentiated cell state without lamellopodia formation during the entire observation time (8 days). Consistently, the myosin heavy chain, typically express…

Myogenic differentiationMaterials scienceCellmuscle differentiation02 engineering and technologyMuscle Development010402 general chemistrySettore BIO/0901 natural sciencesRegenerative medicineZnO nanowireZnO nanowires; mesoangioblasts; muscle differentiation; tissue engineeringTissue engineeringmesoangioblastsMyosinmedicinemesoangioblastGeneral Materials ScienceProgenitor cellNanowiresZno nanowiresSubstrate (chemistry)Cell Differentiation021001 nanoscience & nanotechnology0104 chemical sciencesCell biologymedicine.anatomical_structuretissue engineeringZnO nanowiresZinc Oxide0210 nano-technology
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