Search results for "FATE"

showing 10 items of 765 documents

Mouse Testican-2

2005

Mouse testican-2 was cloned, sequenced, and shown to be a proteoglycan with a multidomain structure closely similar to that of the human ortholog, previously described as a calcium binding extracellular matrix molecule of the BM-40/SPARC/osteonectin family (Vannahme, C., Schubel, S., Herud, M., Gosling, S., Hulsmann, H., Paulsson, M., Hartmann, U., and Maurer, P. (1999). J. Neurochem. 73, 12–20). Recombinant mouse testican-2 was used to prepare specific antibodies that allowed the detection of testican-2 in various brain structures but also in lung, testis, and in several endocrine glands. Although the testican-2 expressed in EBNA-293 cells carried both heparan sulfate and chondroitin/derma…

GlycanGlycosylationbiologyNeuriteCell BiologyHeparan sulfateBiochemistryMolecular biologyDermatan sulfatecarbohydrates (lipids)Extracellular matrixchemistry.chemical_compoundProteoglycanchemistrybiology.proteinOsteonectinMolecular BiologyJournal of Biological Chemistry
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Role of the Netrin-like Domain of Procollagen C-Proteinase Enhancer-1 in the Control of Metalloproteinase Activity

2010

The netrin-like (NTR) domain is a feature of several extracellular proteins, most notably the N-terminal domain of tissue inhibitors of metalloproteinases (TIMPs), where it functions as a strong inhibitor of matrix metalloproteinases and some other members of the metzincin superfamily. The presence of a C-terminal NTR domain in procollagen C-proteinase enhancers (PCPEs), proteins that stimulate the activity of astacin-like tolloid proteinases, raises the possibility that this might also have inhibitory activity. Here we show that both long and short forms of the PCPE-1 NTR domain, the latter beginning at the N-terminal cysteine known to be critical for TIMP activity, show no inhibition, at …

Glycobiology and Extracellular MatricesMatrix metalloproteinaseBiochemistryBONE MORPHOGENETIC PROTEIN-1AdamalysinFIBRILLAR PROCOLLAGENSTolloid ProteinaseExtracellular Matrix Proteins0303 health sciencesADAMTSFRIZZLED-RELATED PROTEINS030302 biochemistry & molecular biologyTissue Inhibitor of Metalloproteinases11 Medical And Health SciencesALPHA-CONVERTING-ENZYMEI PROCOLLAGENADAM ProteinsExtracellular MatrixPLASMINOGEN ACTIVATIONBiochemistryCollagen03 Chemical SciencesLife Sciences & BiomedicineProcollagenBiochemistry & Molecular BiologyTERMINAL DOMAINTolloid-Like MetalloproteinasesADAMTSBiologyBone morphogenetic protein 1Cell Line03 medical and health sciencesDisintegrinHumansHUMAN TISSUE INHIBITORMatrix MetalloproteinaseMolecular BiologyGlycoproteins030304 developmental biologyThrombospondinScience & TechnologyHeparinADAMCell Biology06 Biological SciencesMATRIX-METALLOPROTEINASESProtein Structure TertiaryADAM ProteinsProcollagen peptidaseSULFATED GLYCOSAMINOGLYCANSEnzymologybiology.proteinJournal of Biological Chemistry
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The mucopolysaccharidoses: Inborn errors of glycosaminoglycan catabolism

1976

The mucopolysaccharidoses are genetic disorders of glycosaminoglycan metabolism. Patients with these diseases accumulate within the lysosomes of most tissues excessive amounts of dermatan and/or heparan sulfates, or of keratan sulfate. The clinical consequences of such glycosaminoglycan storage range from skeletal abnormalities to cardiovascular problems, and to motor and mental retardation. In all mucopolysaccharidoses, except Morquio disease, an excessive accumulation of sulfate-labeled glycosaminoglycans has been demonstrated in fibroblasts cultured from the patient's skin. It was subsequently shown that this was due to the deficiency of specific proteins which were named "corrective fac…

Glycoside HydrolasesKeratan sulfateMucopolysaccharidosisPrenatal diagnosisDiseaseMucopolysaccharidosesBiologyBioinformaticsmedicine.diseaseHuman geneticsEnzyme assayGlycosaminoglycanTissue culturechemistry.chemical_compoundPhenotypechemistryGeneticsmedicinebiology.proteinHumansSulfatasesLysosomesGenetics (clinical)GlycosaminoglycansHuman Genetics
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Identification of Two Mannoproteins Released from Cell Walls of a Saccharomyces cerevisiae mnn1 mnn9 Double Mutant by Reducing Agents

1999

The cell wall of Saccharomyces cerevisiae represents some 30% of the total weight of the cell and is made up of β-glucans, mannose-containing glycoproteins (mannoproteins), and small amounts of chitin (9, 15). The mannoproteins can be divided into three groups according to the linkages that bind them to the structure of the cell wall: (i) noncovalently bound, (ii) covalently bound to the structural glucan, and (iii) disulfide bound to other proteins that are themselves covalently bound to the structural glucan of the cell wall (8). Our work has focused on the disulfide-bound mannoproteins, probably the least well known of the three groups mentioned above. Previous work (25) showed that trea…

GlycosylationSaccharomyces cerevisiae ProteinsGlycosylationBlotting WesternMolecular Sequence DataSaccharomyces cerevisiaeSaccharomyces cerevisiaeMicrobiologyGene Expression Regulation EnzymologicFungal ProteinsCell wallOpen Reading FramesSurface-Active Agentschemistry.chemical_compoundCell WallGene Expression Regulation FungalEndopeptidasesAspartic Acid EndopeptidasesAmino Acid SequenceSubtilisinsFluorescent Antibody Technique IndirectMolecular BiologyMercaptoethanolGlucanGel electrophoresischemistry.chemical_classificationFungal proteinMembrane GlycoproteinsbiologySodium Dodecyl SulfateBiological Transportbiology.organism_classificationRecombinant ProteinsYeastMolecular Weightcarbohydrates (lipids)Cytoskeletal ProteinsEukaryotic CellsPhenotypechemistryBiochemistryMutagenesisReducing AgentsElectrophoresis Polyacrylamide GelProprotein ConvertasesProtein Tyrosine PhosphatasesGlycoproteinGene DeletionJournal of Bacteriology
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Cell wall mannoproteins during the population growth phases in Saccharomyces cerevisiae.

1987

Mannoproteins from cell walls of Saccharomyces cerevisiae synthesized at successive stages of the population growth cycle have been solubilized with Zymolyase and subsequently analyzed. The major change along the population cycle concerned a large size mannoprotein material; the size of the newly-synthesized molecules varied from 120,000–500,000 (mean of about 200,000) at early exponential phase to 250,000–350,000 (mean of about 300,000) at late exponential phase. These differences are due to modifications in the amount of N-glycosidically linked mannose residues, since the size of the peptide moiety was 90,000–100,000 at all growth stages and the level of O-glycosylation changed only sligh…

GlycosylationSaccharomyces cerevisiaeMannosePeptideSaccharomyces cerevisiaeBiologyBiochemistryMicrobiologylaw.inventionCell wallFungal Proteinschemistry.chemical_compoundlawCell WallGeneticsConcanavalin AMolecular BiologyIncubationGlucanGlycoproteinschemistry.chemical_classificationMembrane GlycoproteinsGlucan Endo-13-beta-D-GlucosidaseSodium Dodecyl SulfateGeneral Medicinebiology.organism_classificationcarbohydrates (lipids)Molecular WeightDithiothreitolMicroscopy ElectronchemistryBiochemistryConcanavalin AFerritinsbiology.proteinChromatography GelElectrophoresis Polyacrylamide GelElectron microscopeArchives of microbiology
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Expression ofYWP1,a Gene That Encodes a SpecificYarrowia lipolyticaMycelial Cell Wall Protein, inSaccharomyces cerevisiae

1997

Abstract The YWP1 gene encoding a specific mycelial cell wall protein of Yarrowia lipolytica has been cloned and expressed in Saccharomyces cerevisiae using different episomal plasmids. Because the plasmids pYAE35BB and pYAE35ES carrying the YWP1 gene (including the 5′ noncoding promoter sequences) failed to express it, the YWP1 gene was cloned under the control of GAL/CYC or ACT S. cerevisiae promoters. A main band with an apparent molecular mass of 70 kDa was detected by immunoblotting in the cell wall fraction of transformants. Ywp1 processing and incorporation to the cell wall were similar in both Y. lipolytica and S. cerevisiae but not in its final localization in the cell wall. In Y. …

GlycosylationbiologyMolecular massGlucan Endo-13-beta-D-GlucosidaseRecombinant Fusion ProteinsSaccharomyces cerevisiaeGene ExpressionSodium Dodecyl SulfateRNA FungalPromoterYarrowiaSaccharomyces cerevisiaebiology.organism_classificationMicrobiologyFungal ProteinsMolecular WeightCell wallPlasmidAscomycotaBiochemistryCell WallGeneticsRNA MessengerGeneMyceliumFungal Genetics and Biology
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Multiple sulfur and carbon isotope composition of sediments from the Belingwe Greenstone Belt (Zimbabwe): A biogenic methane regulation on mass indep…

2013

Abstract To explore the linkage between mass-independent sulfur isotope fractionation (MIF-S) and δ13Corg excursions during the Neoarchean, as well as the contemporary redox state and biogeochemical cycling of carbon and sulfur, we report the results of a detailed carbon and multiple sulfur (δ34S, δ33S, δ36S) isotopic study of the ∼2.7 Ga Manjeri and ∼2.65 Ga Cheshire formations of the Ngezi Group (Belingwe Greenstone Belt, Zimbabwe). Multiple sulfur isotope data show non-zero Δ33S and Δ36S values for sediments older than 2.4 Ga (i.e. prior to the Great Oxidation Event, GOE), indicating MIF-S thought to be associated with low atmospheric oxygen concentration. However, in several 2.7–2.5 Ga …

Great Oxygenation EventArcheanGeochemistrychemistry.chemical_elementMass-independent fractionationSulfurchemistry.chemical_compoundδ34SIsotope fractionationchemistryGeochemistry and PetrologyIsotopes of carbonSulfateGeologyGeochimica et Cosmochimica Acta
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Compatibility of surfactants with activated-persulfate for the selective oxidation of PAH in groundwater remediation

2017

Abstract Surfactants foam technology can improve the in situ remediation of hydrophobic organic contaminants by enhancing their solubility and the delivery of remediation chemicals. However, the presence of surfactants may impair the effectiveness of the selective oxidation of those contaminants. To tackle the issue, kinetics and selectivity of phenanthrene (PHE) oxidation in aqueous suspensions and its affecting factors including surfactant concentration (CS) and nature, temperature and persulfate (PS) concentration were studied. Significant differences in selectivity were observed between surfactants, reflecting Coulomb interactions with the anionic oxidizers. Lauryl Betaine (LB) stood ou…

Groundwater remediation02 engineering and technology010501 environmental sciences01 natural sciencesMicellechemistry.chemical_compoundReaction rate constantChemical Engineering (miscellaneous)[CHIM]Chemical SciencesSolubilityWaste Management and DisposalComputingMilieux_MISCELLANEOUS0105 earth and related environmental sciences[SDE.IE]Environmental Sciences/Environmental EngineeringProcess Chemistry and TechnologyPhenanthrene021001 nanoscience & nanotechnologyPersulfatePollution6. Clean waterPhthalic acidchemistry13. Climate actionCritical micelle concentration0210 nano-technologyNuclear chemistry
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A new calcium sulfate hemi-hydrate

2010

Calcium sulfate hydrates receive significant attention due to numerous large scale industrial applications. There has been a long debate on the possible existence of two gypsum hemi-hydrate polymorphs, denoted alpha- and beta-CaSO(4).0.5H(2)O. In this work, a new crystal structure of calcium sulfate hemi-hydrates is presented, denoted beta-CaSO(4).0.5H(2)O. The structure was solved using powder neutron diffraction data, the space group is P3(1) and the unit cell in a hexagonal setting a = 6.9268(1), c = 12.7565(3) A. The structure has two calcium-oxygen coordination polyhedra: Ca1 is eight coordinated and has Ca-O bond lengths in the range 2.31(3) to 2.89(2) A and Ca2 is nine coordinated an…

GypsumHydrogen bondNeutron diffractionCrystal structureengineering.materialInorganic ChemistryBond lengthCrystallographychemistry.chemical_compoundchemistryengineeringMoleculeSulfateHydrate
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How to tackle the stringent sulfate removal requirements in mine water treatment-A review of potential methods.

2018

Abstract Sulfate (SO₄²⁻) is a ubiquitous anion in natural waters. It is not considered toxic, but it may be detrimental to freshwater species at elevated concentrations. Mining activities are one significant source of anthropogenic sulfate into natural waters, mainly due to the exposure of sulfide mineral ores to weathering. There are several strategies for mitigating sulfate release, starting from preventing sulfate formation in the first place and ending at several end-of-pipe treatment options. Currently, the most widely used sulfate-removal process is precipitation as gypsum (CaSO₄·2H₂O). However, the lowest reachable concentration is theoretically 1500 mg L⁻¹ SO₄²⁻ due to gypsum’s solu…

GypsumSulfidechemistry.chemical_elementWeatheringDischarge limits02 engineering and technology010501 environmental sciencesengineering.material01 natural sciencesBiochemistryMiningWater Purificationchemistry.chemical_compoundAcid mine drainageSulfateWater pollution0105 earth and related environmental sciencesGeneral Environmental Sciencechemistry.chemical_classificationSulfates021001 nanoscience & nanotechnologyAcid mine drainageSulfateSulfurchemistryEnvironmental chemistrySulfur recoveryengineeringEnvironmental scienceWater treatmentAdsorption0210 nano-technologyWater contaminationWater Pollutants ChemicalEnvironmental research
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