6533b824fe1ef96bd127fffb

RESEARCH PRODUCT

Multi-approach metabolomics analysis and artificial simplified phytocomplexes reveal cultivar-dependent synergy between polyphenols and ascorbic acid in fruits of the sweet cherry (Prunus avium L.).

Stefano NegriMichael AssfalgMartino BianconiFlavia GuzzoGianni ZoccatelliStefania CeoldoLinda AvesaniFrancesca MunariMauro CommissoMatteo StoccheroStefania PolettiAlessandra BulgariniFlavia Di Carlo

subject

0301 basic medicineantioxidantAntioxidantmedicine.medical_treatmentOrganic chemistrylcsh:MedicineAscorbic AcidBiochemistry01 natural sciencesAntioxidantsMass SpectrometryAnalytical ChemistryPrunusSpectrum Analysis Techniquesartificial phytocomplexMetabolitesVitamin CPrunus avium L.Cultivarlcsh:ScienceCherriesChromatography High Pressure LiquidLiquid ChromatographyMicroscopyMultidisciplinaryChromatographic TechniquesLight Microscopyfood and beveragesVitaminsPlantsPhysical sciencesChemistryHorticultureItalyMetabolomesecondaryResearch ArticlePrunus avium L. antioxidant secondary metabolism synergy artificial phytocomplexmetabolism synergyFluorescence Recovery after PhotobleachingLiquid Chromatography-Mass SpectrometryPrunus aviumBiologyResearch and Analysis MethodsFruitsChemical compounds03 medical and health sciencesMetabolomicsSpecies SpecificityOrganic compoundsBotanymedicineMetabolomicsGenetic variabilityNuclear Magnetic Resonance Biomolecular030109 nutrition & dieteticsVitamin C010401 analytical chemistrylcsh:ROrganismsBiology and Life SciencesPolyphenolsAscorbic acid0104 chemical sciencesMetabolismPolyphenolFruitMultiprotein ComplexesLinear Modelslcsh:Q

description

Fruits of the sweet cherry (Prunus avium L.) accumulate a range of antioxidants that can help to prevent cardiovascular disease, inflammation and cancer. We tested the in vitro antioxidant activity of 18 sweet cherry cultivars collected from 12 farms in the protected geographical indication region of Marostica (Vicenza, Italy) during two growing seasons. Multiple targeted and untargeted metabolomics approaches (NMR, LC-MS, HPLC-DAD, HPLC-UV) as well as artificial simplified phytocomplexes representing the cultivars Sandra Tardiva, Sandra and Grace Star were then used to determine whether the total antioxidant activity reflected the additive effects of each compound or resulted from synergistic interactions. We found that the composition of each cultivar depended more on genetic variability than environmental factors. Furthermore, phenolic compounds were the principal source of antioxidant activity and experiments with artificial simplified phytocomplexes indicated strong synergy between the anthocyanins and quercetins/ascorbic acid specifically in the cultivar Sandra Tardiva. Our data therefore indicate that the total antioxidant activity of sweet cherry fruits may originate from cultivar-dependent interactions among different classes of metabolite.

10.1371/journal.pone.0180889http://europepmc.org/articles/PMC5521804?pdf=render