Search results for "Oran"

showing 10 items of 2425 documents

Aerobic growth of Rhodococcus aetherivorans BCP1 using selected naphthenic acids as the sole carbon and energy sources

2018

Naphthenic acids (NAs) are an important group of toxic organic compounds naturally occurring in hydrocarbon deposits. This work shows that Rhodococcus aetherivorans BCP1 cells not only utilize a mixture of eight different NAs (8XNAs) for growth but they are also capable of marked degradation of two model NAs, cyclohexanecarboxylic acid (CHCA) and cyclopentanecarboxylic acid (CPCA) when supplied at concentrations from 50 to 500 mgL−1 . The growth curves of BCP1 on 8XNAs, CHCA, and CPCA showed an initial lag phase not present in growth on glucose, which presumably was related to the toxic effects of NAs on the cell membrane permeability. BCP1 cell adaptation responses that allowed survi…

0301 basic medicineMicrobiology (medical)Inclusion bodie030106 microbiologylcsh:QR1-502Settore BIO/19 - Microbiologia Generale7. Clean energyMicrobiologylcsh:Microbiology03 medical and health scienceschemistry.chemical_compoundBiosynthesisRhodococcus aetherivorans naphthenic acids stress response b-oxidation transmission electron microscopy fatty acids methyl esters inclusion bodiesnaphthenic acidsBeta oxidationchemistry.chemical_classificationbiologyStress responseRhodococcus aetherivoranNaphthenic acidCyclohexanecarboxylic acidbiology.organism_classificationRhodococcus aetherivoranschemistryBiochemistryFatty acids methyl esterβ-oxidationfatty acids methyl estersEnergy sourceRhodococcusBacteriaIntracellularTransmission electron microscopyPolyunsaturated fatty acid
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Rhodococcus aetherivorans BCP1 as cell factory for the production of intracellular tellurium nanorods under aerobic conditions

2016

Tellurite (TeO3 2−) is recognized as a toxic oxyanion to living organisms. However, mainly anaerobic or facultative-anaerobic microorganisms are able to tolerate and convert TeO3 2− into the less toxic and available form of elemental Tellurium (Te0), producing Te-deposits or Te-nanostructures. The use of TeO3 2−-reducing bacteria can lead to the decontamination of polluted environments and the development of “green-synthesis” methods for the production of nanomaterials. In this study, the tolerance and the consumption of TeO3 2− have been investigated, along with the production and characterization of Te-nanorods by Rhodococcus aetherivorans BCP1 grown under aerobic conditions. Aerobically …

0301 basic medicineMicroorganism030106 microbiologyOxyanionBioengineeringSettore BIO/19 - Microbiologia GeneraleApplied Microbiology and Biotechnology03 medical and health scienceschemistry.chemical_compoundMinimum inhibitory concentrationBiogenic nanostructuresTelluriteRhodococcusFood scienceTellurium nanorodsSettore CHIM/02 - Chimica FisicaNanorods biosynthesisNanotubesbiologyStrain (chemistry)ResearchBiogenic nanostructureNanorods biosynthesiAerobiosiRhodococcus aetherivoranElemental telluriumTellurium nanorodbiology.organism_classificationAerobiosisNanotubeRhodococcus aetherivoranschemistryBiochemistryTelluriumAnaerobic exerciseRhodococcusBacteriaIntracellularRhodococcuBiotechnology
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Identification of accessory olfactory system and medial amygdala in the zebrafish

2017

AbstractZebrafish larvae imprint on visual and olfactory cues of their kin on day 5 and 6 postfertilization, respectively. Only imprinted (but not non-imprinted) larvae show strongly activated crypt (and some microvillous) cells demonstrated by pERK levels after subsequent exposure to kin odor. Here, we investigate the olfactory bulb of zebrafish larvae for activated neurons located at the sole glomerulus mdG2 which receives crypt cell input. Imprinted larvae show a significantly increased activation of olfactory bulb cells compared to non-imprinted larvae after exposure to kin odor. Surprisingly, pERK activated Orthopedia-positive cell numbers in the intermediate ventral telencephalic nucl…

0301 basic medicineOlfactory systemanimal structuresGene ExpressionSensory systemImprinting PsychologicalAmygdalaArticleOlfactory Receptor Neurons03 medical and health sciences0302 clinical medicinemedicineAnimalsPhosphorylationZebrafishZebrafishFluorescent DyesGlomerulus (olfaction)Microscopy ConfocalMitogen-Activated Protein Kinase 3MultidisciplinarybiologyfungiOlfactory PathwaysCarbocyaninesZebrafish ProteinsAmygdalabiology.organism_classificationOlfactory BulbOlfactory bulbCell biologySmell030104 developmental biologymedicine.anatomical_structureOdorHypothalamusLarvaOdorants030217 neurology & neurosurgeryTranscription FactorsScientific Reports
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Interactions between odorants and glutathione transferases in the human olfactory cleft

2020

AbstractXenobiotic metabolizing enzymes and other proteins, including odorant-binding proteins located in the nasal epithelium and mucus, participate in a series of processes modulating the concentration of odorants in the environment of olfactory receptors (ORs) and finely impact odor perception. These enzymes and transporters are thought to participate in odorant degradation or transport. Odorant biotransformation results in 1) changes in the odorant quantity up to their clearance and the termination of signaling and 2) the formation of new odorant stimuli (metabolites). Enzymes, such as cytochrome P450 and glutathione transferases (GSTs), have been proposed to participate in odorant clea…

0301 basic medicinePhysiologyOlfaction03 medical and health sciencesBehavioral NeuroscienceGSTP1chemistry.chemical_compound0302 clinical medicineOlfactory MucosaPhysiology (medical)glutathione transferasemedicine[SDV.MHEP.PHY]Life Sciences [q-bio]/Human health and pathology/Tissues and Organs [q-bio.TO]HumanshumanReceptorGSTP1odorantchemistry.chemical_classificationbiologymusculoskeletal neural and ocular physiology[SCCO.NEUR]Cognitive science/NeuroscienceCytochrome P450TransporterGlutathioneSensory Systems3. Good health030104 developmental biologymedicine.anatomical_structureEnzymeGSTA1chemistryBiochemistryOdorantsbiology.proteinOlfactory epithelium[SDV.AEN]Life Sciences [q-bio]/Food and Nutrition030217 neurology & neurosurgerypsychological phenomena and processesolfaction
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Orange proteomic fingerprinting: From fruit to commercial juices.

2015

Combinatorial peptide ligand library technology, coupled to mass spectrometry, has been applied to extensively map the proteome of orange pulp and peel and, via this fingerprinting, to detect its presence in commercial orange juices and drinks. The native and denaturing extraction protocols have captured 1109 orange proteins, as identified by LC-MS/MS. This proteomic map has been searched in an orange concentrate, from a Spanish juice manufacturer, as well as in commercial orange juices and soft drinks. The presence of numerous orange proteins in commercial juices has demonstrated the genuineness of these products, prepared by using orange fruits as original ingredients. However, the low nu…

0301 basic medicineProteomicsProteomeOrange (colour)01 natural sciencesAnalytical ChemistryBeverages03 medical and health sciencesTandem Mass SpectrometryLc ms msFood scienceOrange juiceLC-MS/MSPeptide ligandOrange fruitPlant ProteinsOrange juiceCombinatorial peptide ligand library; LC-MS/MS; Orange fruit; Orange juice; Protein; Proteomics; Food Science; Analytical ChemistryChromatographyChemistryProtein010401 analytical chemistryGeneral Medicine0104 chemical sciences030104 developmental biologyFruitProteomeCombinatorial peptide ligand libraryCitrus × sinensisFood ScienceCitrus sinensisFood chemistry
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Impact of the Usher syndrome on olfaction

2015

Usher syndrome is a genetically and clinically heterogeneous disease in humans, characterized by sensorineural hearing loss, retinitis pigmentosa and vestibular dysfunction. This disease is caused by mutations in genes encoding proteins that form complex networks in different cellular compartments. Currently, it remains unclear whether the Usher proteins also form networks within the olfactory epithelium (OE). Here, we describe Usher gene expression at the mRNA and protein level in the OE of mice and showed interactions between these proteins and olfactory signaling proteins. Additionally, we analyzed the odor sensitivity of different Usher syndrome mouse models using electro-olfactogram re…

0301 basic medicineUsher syndromeCell Cycle ProteinsMice TransgenicNerve Tissue ProteinsOlfactionMyosinsBiologyCell LineMice03 medical and health sciencesOlfactory MucosaGene expressionRetinitis pigmentosaotorhinolaryngologic diseasesGeneticsmedicineAnimalsHumansCiliaMolecular BiologyGeneGenetics (clinical)GeneticsExtracellular Matrix ProteinsMessenger RNAGene Expression ProfilingEpithelial CellsGeneral MedicineCadherinsmedicine.diseaseeye diseasesSmellCytoskeletal ProteinsDisease Models Animal030104 developmental biologymedicine.anatomical_structureGene Expression RegulationMyosin VIIaMutationOdorantsSignal transductionCarrier ProteinsUsher SyndromesOlfactory epitheliumSignal TransductionHuman Molecular Genetics
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Employ of Citrus By-product as Fat Replacer Ingredient for Bakery Confectionery Products

2020

Citrus fruits processing is one of the foremost industrial activities in Sicily and the main residual by-product consists in peels and seeds (known as "pastazzo"). Traditionally this by-product has been used for different purposes, and only most recently, it has been described as source of a wide range of healthy bioactive compounds and dietary fibers. In the present work, a debittered food grade orange fiber (DOF), extracted from orange juice by-product, was experimentally obtained and tested as fat-replacer at different percentages (30, 50, and 70%) in bakery confectionery products (brioches). The DOF showed high total fiber content, low water activity and a high water binding capacity. T…

0301 basic medicineWater activityEndocrinology Diabetes and Metabolism030209 endocrinology & metabolismlcsh:TX341-641Orange (colour)fat replacementfunctional food03 medical and health sciencesIngredient0302 clinical medicineorange juice wasteBy-productFood scienceWater contentfunctional foodsNutritionOriginal ResearchOrange juice030109 nutrition & dieteticsNutrition and DieteticsChemistrybakery confectionery productsdietary fiberbakery confectionery productDietary fiberWater bindinglcsh:Nutrition. Foods and food supplyFood Science
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Effect of substrate composition on the stability and microbial community of an anaerobic expanded granular sludge bed reactor treating printing solve…

2019

Abstract The performance and microbial community analysis of an expanded granular sludge bed reactor (EGSB) treating wastewater polluted with mixtures of ethanol and glycol ethers –such as 1-ethoxy-2-propanol (E2P) and 1-methoxy-2-propanol (M2P)– were evaluated. The results showed good EGSB performance during start-up (100% of ethanol) in terms of global removal efficiency (RE > 95%). When glycol ethers were added, an initial adaptation period was observed of ~20 days. While the RE of M2P became complete, the RE of E2P reached only 65%. The proportion of glycol ethers was gradually increased and at the end of this study only a binary mixture of E2P and M2P was fed. In the last stage, the gl…

0301 basic medicineeducation.field_of_studybiologyChemistry030106 microbiologyPopulation010501 environmental sciencesbiology.organism_classificationPulp and paper industry01 natural sciencesMicrobiologyMethanomethylovoransMethanosaetaBiomaterials03 medical and health sciencesGlycol etherschemistry.chemical_compoundMicrobial population biologyWastewaterMethanoleducationWaste Management and Disposal0105 earth and related environmental sciencesGeobacterInternational Biodeterioration & Biodegradation
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Functional Gustatory Role of Chemoreceptors in Drosophila Wings

2016

Summary: Neuroanatomical evidence argues for the presence of taste sensilla in Drosophila wings; however, the taste physiology of insect wings remains hypothetical, and a comprehensive link to mechanical functions, such as flight, wing flapping, and grooming, is lacking. Our data show that the sensilla of the Drosophila anterior wing margin respond to both sweet and bitter molecules through an increase in cytosolic Ca2+ levels. Conversely, genetically modified flies presenting a wing-specific reduction in chemosensory cells show severe defects in both wing taste signaling and the exploratory guidance associated with chemodetection. In Drosophila, the chemodetection machinery includes mechan…

0301 basic medicinemelanogasterTasteChemoreceptor[ SDV.BA.ZI ] Life Sciences [q-bio]/Animal biology/Invertebrate ZoologyneuronsInsectmale courtship behavior[SDV.BC.BC]Life Sciences [q-bio]/Cellular Biology/Subcellular Processes [q-bio.SC]Animals Genetically Modified0302 clinical medicineCytosolConditioning PsychologicalDrosophila ProteinsWings AnimalSensillalcsh:QH301-705.5media_commonAnimal biologybiologyBehavior AnimalAnatomytransductionbitterChemoreceptor CellsDrosophila melanogasterTasteAlimentation et Nutritioncandidate taste receptors;male courtship behavior;apis-mellifera;insect flight;gene;trasnsduction;melanogaster;odorant;neurons;bitterinsect flightanimal structuresmedia_common.quotation_subjectCarbohydratesTime-Lapse ImagingGeneral Biochemistry Genetics and Molecular BiologyFluorescence03 medical and health sciencesBiologie animalecandidate taste receptorsAnimalsFood and Nutrition[SDV.BBM]Life Sciences [q-bio]/Biochemistry Molecular BiologyCalcium SignalingRNA Messengerapis-melliferageneDrosophilaodorantWingfungiNeurosciencesWater[SDV.BBM.BM]Life Sciences [q-bio]/Biochemistry Molecular Biology/Molecular biology[SDV.BDD.MOR]Life Sciences [q-bio]/Development Biology/Morphogenesisbiology.organism_classification[SDV.BA.ZI]Life Sciences [q-bio]/Animal biology/Invertebrate Zoology[SDV.GEN.GA]Life Sciences [q-bio]/Genetics/Animal genetics030104 developmental biologylcsh:Biology (General)FoodNeurons and CognitionCalciumNeuroscience030217 neurology & neurosurgery
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Drosophila Food-Associated Pheromones: Effect of Experience, Genotype and Antibiotics on Larval Behavior

2016

International audience; Animals ubiquitously use chemical signals to communicate many aspects of their social life. These chemical signals often consist of environmental cues mixed with species-specific signals-pheromones-emitted by conspecifics. During their life, insects can use pheromones to aggregate, disperse, choose a mate, or find the most suitable food source on which to lay eggs. Before pupariation, larvae of several Drosophila species migrate to food sources depending on their composition and the presence of pheromones. Some pheromones derive from microbiota gut activity and these food-associated cues can enhance larval attraction or repulsion. To explore the mechanisms underlying…

0301 basic medicinemelanogasterlcsh:Medicine[ SDV.BA ] Life Sciences [q-bio]/Animal biologyBiochemistryPheromonesLarvaeAntibioticsMedicine and Health Sciencesinsectslcsh:ScienceAnimal Signaling and CommunicationLarvaMultidisciplinaryInsect MetamorphosisbiologyAnimal BehaviorBehavior AnimalEcologyAntimicrobialscommunicationDrosophila Melanogaster[SDV.BA]Life Sciences [q-bio]/Animal biologyaggressionsex-pheromonesDrugsAnimal ModelsAttractionPupaSex pheromoneLarvacourtshipNeurosciences (Sciences cognitives)DrosophilaDrosophila melanogasterCuesrecognitionPupariationResearch ArticleattractionComputer and Information SciencesArthropodaGenotypeZoologyResearch and Analysis MethodsMicrobiology03 medical and health sciencesModel OrganismsInvertebrate ZoologySEX-PHEROMONES;MELANOGASTER;AGGRESSION;COURTSHIP;COMMUNICATION;RECOGNITION;ATTRACTION;EVOLUTION;MUTATION;INSECTSMicrobial ControlevolutionAnimalsDrosophilaSensory cuePharmacologyBehaviorMetamorphosisData Visualizationlcsh:RfungiOrganismsBiology and Life SciencesPupaebiology.organism_classificationZoologie des invertébrésInvertebratesColor Codes030104 developmental biologyFoodOdorantslcsh:QmutationZoologyEntomologyNeuroscienceDevelopmental Biology
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