Search results for " cell differentiation"

showing 10 items of 81 documents

Amnion-Derived Mesenchymal Stromal/Stem Cell Paracrine Signals Potentiate Human Liver Organoid Differentiation: Translational Implications for Liver …

2021

The prevalence of end-stage liver diseases has reached very high levels globally. The election treatment for affected patients is orthotopic liver transplantation, which is a very complex procedure, and due to the limited number of suitable organ donors, considerable research is being done on alternative therapeutic options. For instance, the use of cell therapy, such as the transplantation of hepatocytes to promote liver repair/regeneration, has been explored, but standardized protocols to produce suitable human hepatocytes are still limited. On the other hand, liver progenitor and multipotent stem cells offer potential cell sources that could be used clinically. Different studies have rep…

Medicine (General)Regeneration (biology)Mesenchymal stem cellGeneral MedicineBiologyLiver regenerationTransplantationCell therapy3D liver organoid culturehepatocyte cultureR5-920Multipotent Stem CellCancer researchMedicinehepatic progenitor cell differentiationProgenitor cellStem cellliver regenerationhuman amnion-derived mesenchymal stem cellsOriginal ResearchFrontiers in Medicine
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Cytokines and their effects on maturation, differentiation and migration of dendritic cells.

1996

In this review the role of cytokines in the maturation and migration of phenotypically and functionally diverse dendritic cell (DC) subpopulations is discussed and their role in the progress of differentiation from bone marrow progenitors to lymphoid DC is described. GM-CSF is the most important cytokine for the development of functional DC and acts in concert with a varying mixture of other cytokines such as IL-4, IL-1 and TNF-α to direct the development of individual DC subpopulations.

Langerhans cellLymphoid Tissuemedicine.medical_treatmentCellular differentiationDermatologyDendritic cell differentiationBiologyCell MovementmedicineAnimalsHumansProgenitor cellAntigen PresentationEpidermis (botany)Stem CellsCell DifferentiationGeneral MedicineDendritic cellDendritic CellsCell biologymedicine.anatomical_structureCytokineLangerhans CellsAntigens SurfaceCytokinesBone marrowArchives of dermatological research
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Evidence for a common progenitor of epithelial and mesenchymal components of the liver

2013

Tissues of the adult organism maintain the homeostasis and respond to injury by means of progenitor/stem cell compartments capable to give rise to appropriate progeny. In organs composed by histotypes of different embryological origins (e.g. The liver), the tissue turnover may in theory involve different stem/precursor cells able to respond coordinately to physiological or pathological stimuli. In the liver, a progenitor cell compartment, giving rise to hepatocytes and cholangiocytes, can be activated by chronic injury inhibiting hepatocyte proliferation. The precursor compartment guaranteeing turnover of hepatic stellate cells (HSCs) (perisinusoidal cells implicated with the origin of the …

Cellular differentiationLiver Stem CellDesminMice0302 clinical medicineMESH: AnimalsMESH: Nerve Tissue ProteinsHepatic stellate cellCells Cultured0303 health sciencesMesenchymal Stromal CellStem CellsCell DifferentiationCell biologyEndothelial stem cellMESH: DesminMESH: Models AnimalLiverMESH: Epithelial CellsDifferentiationModels Animal030211 gastroenterology & hepatologyStem cellMESH: Stem Cell Transplantationhepatic stellate cell; cell transplantation; liver stem cell; differentiationMESH: Cells CulturedMESH: Cell DifferentiationCell transplantation; Differentiation; Hepatic stellate cell; Liver stem cell; Animals; Cell Differentiation; Cell Line; Cell Lineage; Cell Proliferation; Cells Cultured; Desmin; Epithelial Cells; Glial Fibrillary Acidic Protein; In Vitro Techniques; Liver; Mesenchymal Stromal Cells; Mice; Mice Nude; Models Animal; Nerve Tissue Proteins; Stem Cell Transplantation; Stem Cells; Cell Biology; Molecular BiologyClinical uses of mesenchymal stem cellsMice NudeNerve Tissue ProteinsMESH: Stem Cells[SDV.BC]Life Sciences [q-bio]/Cellular BiologyBiologyIn Vitro TechniquesCell Line03 medical and health sciencesStem CellMESH: Cell ProliferationGlial Fibrillary Acidic ProteinMESH: Mice NudeAnimalsCell LineageProgenitor cellMESH: MiceMolecular Biology030304 developmental biologyCell ProliferationOriginal PaperEpithelial CellAnimalIn Vitro TechniqueMesenchymal stem cellEpithelial CellsMesenchymal Stem CellsCell BiologyMESH: Cell LineageMESH: Cell LineLiver stem cellNerve Tissue ProteinHepatic stellate cellMESH: Mesenchymal Stromal CellsCell transplantationMESH: LiverStem Cell Transplantation
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The role of NF-AT transcription factors in T cell activation and differentiation11We dedicate this review to Prof. Dr. Rigomar Rieger (Gatersleben), …

2000

AbstractThe family of genuine NF-AT transcription factors consists of four members (NF-AT1 [or NF-ATp], NF-AT2 [or NF-ATc], NF-AT3 and NF-AT4 [or NF-ATx]) which are characterized by a highly conserved DNA binding domain (is designated as Rel similarity domain) and a calcineurin binding domain. The binding of the Ca2+-dependent phosphatase calcineurin to this region controls the nuclear import and exit of NF-ATs. This review deals (1) with the structure of NF-AT proteins, (2) the DNA binding of NF-AT factors and their interaction with AP-1, (3) NF-AT target genes, (4) signalling pathways leading to NF-AT activation: the role of protein kinases and calcineurin, (5) the nuclear entry and exit …

T cell activationCellular differentiationT cell differentiationCell BiologyDNA-binding domainCell cycleBiologyInterleukinNFATC Transcription FactorsAP-1Molecular biologyCalcineurinCyclosporin AT cell differentiationNF-AT transcription factorNuclear proteinMolecular BiologyTranscription factorBiochimica et Biophysica Acta (BBA) - Molecular Cell Research
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Cabozantinib targets bone microenvironment modulating human osteoclast and osteoblast functions

2016

Cabozantinib, a c-MET and vascular endothelial growth factor receptor 2 inhibitor, demonstrated to prolong progression free survival and improve skeletal disease-related endpoints in castration-resistant prostate cancer and in metastatic renal carcinoma. Our purpose is to investigate the direct effect of cabozantinib on bone microenvironment using a total human model of primary osteoclasts and osteoblasts.Osteoclasts were differentiated from monocytes isolated from healthy donors; osteoblasts were derived from human mesenchymal stem cells obtained from bone fragments of orthopedic surgery patients. Osteoclast activity was evaluated by tartrate resistant acid phosphatase (TRAP) staining and …

0301 basic medicinePyridines -- pharmacologyPyridinesPyridineImmunoenzyme TechniqueOsteoclastsApoptosisRANK Ligand -- genetics -- metabolismImmunoenzyme Techniqueschemistry.chemical_compoundBone Resorption -- drug therapy -- metabolism -- pathology0302 clinical medicineOsteogenesisCathepsin KMedicineAnilidesAnilides -- pharmacologyOsteoprotegerin -- genetics -- metabolismOsteoclasts -- cytology -- drug effects -- physiologyHuman primary cellCells CulturedTartrate-resistant acid phosphataseReceptor Activator of Nuclear Factor-kappa B -- genetics -- metabolismbiologyProto-Oncogene Proteins c-met -- genetics -- metabolismReceptor Activator of Nuclear Factor-kappa BReverse Transcriptase Polymerase Chain ReactionOsteoblastOsteogenesiOsteoblastCell DifferentiationSciences bio-médicales et agricolesProto-Oncogene Proteins c-metOsteoblasts -- cytology -- drug effects -- physiologymedicine.anatomical_structureCell Differentiation -- drug effectsOncologyRANKL030220 oncology & carcinogenesishuman primary cellsOsteoclastosteoprotegerin (OPG)bone microenvironmentHumanResearch Papermusculoskeletal diseasesmedicine.medical_specialtyCabozantinibBlotting WesternOsteogenesis -- drug effects -- physiologyReal-Time Polymerase Chain ReactionBone resorption03 medical and health sciencesOsteoprotegerinOsteoclastcabozantinibInternal medicineHumansRNA MessengerBone ResorptionCell ProliferationOsteoblastsbusiness.industryRANK LigandAnilideOsteoprotegerinApoptosiBone microenvironment; Cabozantinib; Human primary cells; Osteoprotegerin (OPG); Receptor activator of nuclear factor-kb ligand (RANKL); Anilides; Apoptosis; Blotting Western; Bone Resorption; Cell Differentiation; Cell Proliferation; Cells Cultured; Humans; Immunoenzyme Techniques; Osteoblasts; Osteoclasts; Osteogenesis; Osteoprotegerin; Proto-Oncogene Proteins c-met; Pyridines; RANK Ligand; RNA Messenger; Real-Time Polymerase Chain Reaction; Receptor Activator of Nuclear Factor-kappa B; Reverse Transcriptase Polymerase Chain Reaction; Oncology030104 developmental biologyEndocrinologychemistrybiology.proteinbusinessRNA Messenger -- geneticsreceptor activator of nuclear factor-kb ligand (RANKL)
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Gallium modulates osteoclastic bone resorption in vitro without affecting osteoblasts.

2010

Gallium (Ga) has been shown to be effective in the treatment of disorders associated with accelerated bone loss, including cancer-related hypercalcemia and Paget's disease. These clinical applications suggest that Ga could reduce bone resorption. However, few studies have studied the effects of Ga on osteoclastic resorption. Here, we have explored the effects of Ga on bone cells in vitro.In different osteoclastic models [osteoclasts isolated from long bones of neonatal rabbits (RBC), murine RAW 264.7 cells and human CD14-positive cells], we have performed resorption activity tests, staining for tartrate resistant acid phosphatase (TRAP), real-time polymerase chain reaction analysis, viabili…

MESH: Bone ResorptionMESH: RabbitsGallium[SDV.BC.IC] Life Sciences [q-bio]/Cellular Biology/Cell Behavior [q-bio.CB]MESH: Base Sequence[SDV.BBM.BM] Life Sciences [q-bio]/Biochemistry Molecular Biology/Molecular biologyMiceMESH: Alkaline PhosphataseMESH: Reverse Transcriptase Polymerase Chain Reaction[SDV.BC.IC]Life Sciences [q-bio]/Cellular Biology/Cell Behavior [q-bio.CB]MESH: Animals[SDV.BBM.BC] Life Sciences [q-bio]/Biochemistry Molecular Biology/Biochemistry [q-bio.BM]Cells Cultured[SDV.MHEP.RSOA] Life Sciences [q-bio]/Human health and pathology/Rhumatology and musculoskeletal systemReverse Transcriptase Polymerase Chain ReactionCell DifferentiationMESH: GalliumResearch Papers[SDV.BBM.BC]Life Sciences [q-bio]/Biochemistry Molecular Biology/Biomolecules [q-bio.BM]Isoenzymes[SDV.MHEP.RSOA]Life Sciences [q-bio]/Human health and pathology/Rhumatology and musculoskeletal systemMESH: Isoenzymes[SDV.BBM.GTP] Life Sciences [q-bio]/Biochemistry Molecular Biology/Genomics [q-bio.GN]RabbitsMESH: Cells Culturedmusculoskeletal diseasesMESH: Cell DifferentiationMESH: DNA PrimersAcid Phosphatase[SDV.CAN]Life Sciences [q-bio]/CancerIn Vitro TechniquesMESH: Acid Phosphatase[SDV.CAN] Life Sciences [q-bio]/Cancer[SDV.BBM.GTP]Life Sciences [q-bio]/Biochemistry Molecular Biology/Genomics [q-bio.GN]AnimalsHumansBone Resorption[SDV.BBM.BC]Life Sciences [q-bio]/Biochemistry Molecular Biology/Biochemistry [q-bio.BM]MESH: Tartrate-Resistant Acid Phosphatase[SDV.IB.BIO]Life Sciences [q-bio]/Bioengineering/BiomaterialsMESH: MiceDNA PrimersMESH: In Vitro TechniquesMESH: OsteoblastsOsteoblastsMESH: HumansBase SequenceTartrate-Resistant Acid Phosphatase[SDV.BBM.BM]Life Sciences [q-bio]/Biochemistry Molecular Biology/Molecular biologyAlkaline Phosphatase[SDV.IB.BIO] Life Sciences [q-bio]/Bioengineering/Biomaterials
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Umbilical cord versus bone marrow-derived mesenchymal stromal cells.

2012

incetheplacentaisapostnatal tissue and discarded asmedical waste, harvesting stem cells from this organrepresents a noninvasive and ethically conductive proce-dure. Perinatal stem cells isolated from amnion, chorion,umbilical cord, and cord blood are increasingly viewedas reliable sources of mesenchymal stromal cells (MSCs)alternative to bone marrow-derived ones (BM-MSCs),which are currently the most commonly used in clinicalapplications [1–5].Perinatal stem cells are a bridge between embryonic stemcells (ESCs) and adult stem cells (such as BM-MSCs). Theyshare many characteristics of both cells [1,6]. Considering thestructural complexity of the term ‘‘placenta,’’ we have fo-cused our attent…

Cellular differentiationCellsBone Marrow CellsBiologyCell therapyHumansSettore BIO/13 - BIOLOGIA APPLICATAWharton JellyCell ShapeCells CulturedStem cell transplantation for articular cartilage repairCell ProliferationCulturedMesenchymal Stromal CellsSettore BIO/16 - Anatomia UmanaMesenchymal stem cellMesenchymal Stem CellsCell DifferentiationCell BiologyHematologyBone Marrow Cells; Cell Differentiation; Cell Proliferation; Cell Shape; Cells Cultured; Humans; Mesenchymal Stromal Cells; Stem Cell Research; Wharton JellyStem Cell ResearchEmbryonic stem cellCell biologyCord bloodImmunologymesenchymal stem cells differentiation markers umbilical cord wharton's jelly bone marrow adipose tissueStem cellDevelopmental BiologyAdult stem cell
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Mesenchymal stromal cells and rheumatic diseases: new tools from pathogenesis to regenerative therapies

2015

In recent years, mesenchymal stromal cells (MSCs) have been largely investigated and tested as a new therapeutic tool for several clinical applications, including the treatment of different rheumatic diseases. MSCs are responsible for the normal turnover and maintenance of adult mesenchymal tissues as the result of their multipotent differentiation abilities and their secretion of a variety of cytokines and growth factors. Although initially derived from bone marrow, MSCs are present in many different tissues such as many peri-articular tissues. MSCs may exert immune-modulatory properties, modulating different immune cells in both in vitro and in vivo models, and they are considered immune-…

AdultCancer ResearchpathogenesiCellular differentiationImmunologyCell- and Tissue-Based TherapyBone Marrow CellsMesenchymal Stem Cell TransplantationRegenerative MedicineRegenerative medicineAutoimmune DiseaseAutoimmune DiseasesChondrocytesImmune systemIn vivoBone MarrowRheumatic DiseasesmedicineHumansImmunology and Allergyrheumatic diseaseGenetics (clinical)TransplantationOsteoblastsMesenchymal Stromal Cellbusiness.industryOsteoblastMesenchymal stem cellMesenchymal Stem CellsCell DifferentiationCell BiologyChondrocyteClinical trialmedicine.anatomical_structureregenerative therapyOncologymesenchymal stromal cells; pathogenesis; regenerative therapy; rheumatic disease; Adult; Autoimmune Diseases; Bone Marrow; Bone Marrow Cells; Cell Differentiation; Cell- and Tissue-Based Therapy; Chondrocytes; Humans; Mesenchymal Stem Cell Transplantation; Mesenchymal Stromal Cells; Osteoblasts; Regenerative Medicine; Rheumatic DiseasesImmunologyBone Marrow CellBone marrowStem cellbusinessHuman
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A Genome-Wide Detection of Copy Number Variations Using SNP Genotyping Arrays in Braque Français Type Pyrénées Dogs

2019

Simple Summary Copy number variations (CNVs) are important sources of variation in mammalian species. In this study, we used a single nucleotide polymorphisms (SNP) array to detect CNVs in Braque Français, type Pyrénées dogs (BRA). Results overlapped moderately in comparison with previous studies on CNVs in dogs, leading to the identification of 16 novel CNVRs. Several genes were annotated in the CNV regions (CNVRs) detected, some of which related to muscle structure development. This breed is known to be excellent upland game birds dogs. The selection for such hunting behavior could have driven the presence of these genes into the CNVRs. Copy number variations may be of interest to study a…

False discovery rateSingle-nucleotide polymorphismComputational biologyBiologyGenomeSettore AGR/17 - Zootecnica Generale E Miglioramento Genetico03 medical and health sciencesBraque Français type Pyrénées dogcopy number variation (CNV) canine high-density SNP array; Braque Français type Pyrénées dogsGenetic variationlcsh:Zoologycanine high-density SNP arrayCopy-number variationlcsh:QL1-991030304 developmental biology0303 health scienceslcsh:Veterinary medicineGeneral VeterinaryMuscle cell differentiationCommunication030302 biochemistry & molecular biologycanine high-density SNP array; Braque Français type Pyrénées dogsSNP genotypingcopy number variation (CNV) canine high-density SNP arraycopy number variation (CNV)Veterinary (all)lcsh:SF600-1100Animal Science and ZoologyBraque Français type Pyrénées dogsSNP arrayAnimals
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Castration-Induced Downregulation of SPARC in Stromal Cells Drives Neuroendocrine Differentiation of Prostate Cancer.

2021

Abstract Fatal neuroendocrine differentiation (NED) of castration-resistant prostate cancer is a recurrent mechanism of resistance to androgen deprivation therapies (ADT) and antiandrogen receptor pathway inhibitors (ARPI) in patients. The design of effective therapies for neuroendocrine prostate cancer (NEPC) is complicated by limited knowledge of the molecular mechanisms governing NED. The paucity of acquired genomic alterations and the deregulation of epigenetic and transcription factors suggest a potential contribution from the microenvironment. In this context, whether ADT/ARPI induces stromal cells to release NED-promoting molecules and the underlying molecular networks are unestablis…

MaleCancer ResearchStromal cellAnimals Biomarkers Tumor Cell Differentiation Cell Line Tumor Coculture Techniques Endoplasmic Reticulum Chaperone BiP Epigenesis Genetic Gene Expression Regulation Neoplastic Humans Male Mice Mice Inbred C57BL Neuroendocrine Cells Osteonectin Prostatic Neoplasms Stromal Cells Transgenes Tumor Microenvironment Down-RegulationDown-RegulationContext (language use)Settore MED/08 - Anatomia PatologicaNeuroendocrine differentiationEpigenesis GeneticProstate cancerMiceStromaDownregulation and upregulationNeuroendocrine CellsCell Line TumormedicineBiomarkers TumorTumor MicroenvironmentSettore MED/05 - Patologia ClinicaAnimalsHumansOsteonectinEpigeneticsTransgenesEndoplasmic Reticulum Chaperone BiPbusiness.industryMatricellular proteinProstatic NeoplasmsCell Differentiationmedicine.diseaseCoculture TechniquesGene Expression Regulation NeoplasticMice Inbred C57BLOncologyCancer researchStromal CellsbusinessCancer research
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