Search results for "Total cell"

showing 4 items of 4 documents

PML nuclear body-residing proteins sequentially associate with HPV genome after infectious nuclear delivery.

2019

Subnuclear promyelocytic leukemia (PML) nuclear bodies (NBs) are targeted by many DNA viruses after nuclear delivery. PML protein is essential for formation of PML NBs. Sp100 and Small Ubiquitin-Like Modifier (SUMO) are also permanently residing within PML NBs. Often, large DNA viruses disassemble and reorganize PML NBs to counteract their intrinsic antiviral activity and support establishment of infection. However, human papillomavirus (HPV) requires PML protein to retain incoming viral DNA in the nucleus for subsequent efficient transcription. In contrast, Sp100 was identified as a restriction factor for HPV. These findings suggested that PML NBs are important regulators of early stages o…

Viral DiseasesPhysiologyvirusesIntranuclear Inclusion BodiesPromyelocytic Leukemia ProteinVirus ReplicationBiochemistryAutoantigensImmune PhysiologyMedicine and Health SciencesCell Cycle and Cell DivisionNuclear proteinBiology (General)PapillomaviridaeStaining0303 health sciencesViral GenomicsImmune System ProteinsChromosome Biology030302 biochemistry & molecular biologyCell StainingTotal Cell CountingNuclear Proteinsvirus diseasesAntigens NuclearGenomicsCell biologymedicine.anatomical_structureInfectious DiseasesCapsidCell ProcessesViral GenomeCellular Structures and OrganellesIntranuclear SpaceResearch ArticleHuman Papillomavirus InfectionQH301-705.5UrologyImmunologyCell Enumeration TechniquesSUMO-1 ProteinSexually Transmitted DiseasesMitosisMicrobial GenomicsGenome ViralBiologyResearch and Analysis MethodsMicrobiologyVirusAntibodies03 medical and health sciencesPromyelocytic leukemia proteinVirologyNuclear BodiesmedicineGeneticsHumansVesiclesMolecular BiologyMitosisTranscription factor030304 developmental biologyCell NucleusGenitourinary InfectionsTumor Suppressor ProteinsBiology and Life SciencesProteinsCell BiologyRC581-607Cell nucleusViral replicationSpecimen Preparation and Treatmentbiology.proteinParasitologyCapsid ProteinsImmunologic diseases. AllergyTranscription FactorsPLoS Pathogens
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Uptake and retention of calcium, iron, and zinc from raw legumes and the effect of cooking on lentils in Caco-2 cells

2006

Abstract This study examined calcium, iron, and zinc uptake in Caco-2 cells (retention plus transport) from white beans, chickpeas, and lentils subjected to prior in vitro gastrointestinal digestion and the effect of cooking (traditional and industrial—ready to eat) on the uptake of these minerals from lentils. The highest cell uptake of calcium, iron, and zinc corresponded to raw chickpeas, which had the lowest soluble oxalate content and intermediate phenolic and tannin contents. From these results, raw chickpeas would be the best dietary source of calcium, iron, and zinc, although consumption in this form (ie, raw) is low. Cooking affects the calcium, iron, and zinc contents of lentils a…

chemistry.chemical_classificationNutrition and DieteticsChemistryEndocrinology Diabetes and Metabolismchemistry.chemical_elementTotal cellZincCalciumSoluble oxalateGastrointestinal digestionEndocrinologyBiochemistryCaco-2TanninFood scienceSolubilityNutrition Research
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Robust Conditional Independence maps of single-voxel Magnetic Resonance Spectra to elucidate associations between brain tumours and metabolites.

2020

The aim of the paper is two-fold. First, we show that structure finding with the PC algorithm can be inherently unstable and requires further operational constraints in order to consistently obtain models that are faithful to the data. We propose a methodology to stabilise the structure finding process, minimising both false positive and false negative error rates. This is demonstrated with synthetic data. Second, to apply the proposed structure finding methodology to a data set comprising single-voxel Magnetic Resonance Spectra of normal brain and three classes of brain tumours, to elucidate the associations between brain tumour types and a range of observed metabolites that are known to b…

False discovery rateB VitaminsMagnetic Resonance SpectroscopyComputer scienceDirected Acyclic GraphsBiochemistry030218 nuclear medicine & medical imaging0302 clinical medicineMetabolitesMedicine and Health SciencesAmino AcidsQANeurological Tumors0303 health sciencesMultidisciplinaryDirected GraphsOrganic CompoundsBrain NeoplasmsQRTotal Cell CountingBrainMutual informationVitaminsLipidsChemistryConditional independenceOncologyNeurologyPhysical SciencesEngineering and TechnologyMedicineMeningiomaAlgorithmManagement EngineeringAlgorithmsResearch ArticleComputer and Information SciencesScienceCell Enumeration TechniquesGlycineFeature selectionCholinesResearch and Analysis MethodsSynthetic data03 medical and health sciencesInsuranceRobustness (computer science)HumansMetabolomics030304 developmental biologyRisk ManagementOrganic ChemistryChemical CompoundsBayesian networkBiology and Life SciencesCancers and NeoplasmsProteinsBayes TheoremDirected acyclic graphR1MetabolismAliphatic Amino AcidsGraph TheoryMathematicsPLoS ONE
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Extremely rapid acclimation of Escherichia coli to high temperature over a few generations of a fed-batch culture during slow warming

2014

This study aimed to demonstrate that adequate slow heating rate allows two strains of Escherichia coli rapid acclimation to higher temperature than upper growth and survival limits known to be strain-dependent. A laboratory (K12-TG1) and an environmental (DPD3084) strain of E. coli were subjected to rapid (few seconds) or slow warming (1 degrees C 12 h(-1)) in order to (re) evaluate upper survival and growth limits. The slow warming was applied from the ancestral temperature 37 degrees C to total cell death 46-54 degrees C: about 30 generations were propagated. Upper survival and growth limits for rapid warming (46 degrees C) were lower than for slow warming (46-54 degrees C). The thermal l…

Hot TemperatureMembrane FluidityAcclimatizationslow warmingBiologymedicine.disease_causeMicrobiologyAcclimatizationProtein Structure SecondaryHot Temperature03 medical and health sciencesAcclimation;Escherichia coli;slow warming;thermal nicheBotanymedicineEscherichia coli[SPI.GPROC]Engineering Sciences [physics]/Chemical and Process EngineeringEscherichia coliOriginal Research030304 developmental biologyBacteriological Techniques0303 health sciencesStrain (chemistry)030306 microbiologyEscherichia coli ProteinsTotal cellBacterial LoadFed-batch cultureBatch Cell Culture Techniques13. Climate actionBiophysicsThermal limitthermal nicheRandom mutationAcclimation
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