0000000000221327

AUTHOR

Ines Castangia

0000-0002-3100-8107

showing 8 related works from this author

Protective effect of grape extract phospholipid vesicles against oxidative stress skin damages

2016

Abstract Grape extract rich in polyphenols (∼129 ± 32 mg of gallic acid equivalents per g of dry extract) was obtained from the pomaces of Cannonau grapes by homogenization in an ethanol/water mixture. The efficacy of ultrasounds in speeding up the extraction kinetics of polyphenols was demonstrated. The extract was incorporated in liposomes and PEVs (penetration enhancer containing vesicles) with Labrasol ® or Labrasol ® /ethanol. All the vesicles were spherical and predominantly unilamellar: liposomes were large (∼927 nm) and polydispersed (PI ∼0.56), while PEVs were small (∼140 nm) and fairly homogeneous (PI ∼0.3). Moreover, PEVs were able to incorporate a high amount of the extract (∼98…

LiposomeAntioxidantChromatographyEthanolmedicine.medical_treatmentVesiclefungiKineticsfood and beverages02 engineering and technology021001 nanoscience & nanotechnologymedicine.disease_cause030226 pharmacology & pharmacy03 medical and health scienceschemistry.chemical_compound0302 clinical medicineBiochemistrychemistryPolyphenolmedicineGallic acid0210 nano-technologyAgronomy and Crop ScienceOxidative stressIndustrial Crops and Products
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Nutriosomes: Prebiotic delivery systems combining phospholipids, a soluble dextrin and curcumin to counteract intestinal oxidative stress and inflamm…

2018

Nutriosomes, new phospholipid nanovesicles specifically designed for intestinal protection were developed by simultaneously loading a water-soluble dextrin (Nutriose® FM06) and a natural antioxidant (curcumin). Nutriosomes were easily fabricated in a one-step, organic solvent-free procedure. The stability and delivery performances of the vesicles were improved by adding hydroxypropyl methylcellulose. All the vesicles were small in size (mean diameter ∼168 nm), negatively charged (zeta potential ∼-38 mV, irrespective of their composition), and self-assembled predominantly in unilamellar vesicles stabilized by the presence of Nutriose®, which was located in both the inter-lamellar and inter-v…

Male0301 basic medicineBiodistributionAntioxidantCurcuminEstrès oxidatiumedicine.medical_treatmentPhospholipidBiological AvailabilityCurcumin analogues02 engineering and technologyAntioxidants03 medical and health scienceschemistry.chemical_compoundCryoprotective AgentsDrug Delivery SystemsCurcumaMicroscopy Electron TransmissionX-Ray DiffractionDextrinsScattering Small AnglemedicineZeta potentialAnimalsHumansTissue DistributionGeneral Materials ScienceRats WistarPhospholipidsInflammationchemistry.chemical_classificationVesicle021001 nanoscience & nanotechnologyRats3. Good healthBioavailabilityIntestinesOxidative StressFreeze DryingPrebiotics030104 developmental biologychemistryCurcuminBiophysicsDextrinCaco-2 Cells0210 nano-technology
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Fabrication of quercetin and curcumin bionanovesicles for the prevention and rapid regeneration of full-thickness skin defects on mice

2013

In the present work biocompatible quercetin and curcumin nanovesicles were developed as a novel approach to prevent and restore skin tissue defects on chronic cutaneous pathologies. Stable and suitable quercetin- and curcumin-loaded phospholipid vesicles, namely liposomes and penetration enhancer-containing vesicles (PEVs), were prepared. Vesicles were made from a highly biocompatible mixture of phospholipids and alternatively a natural polyphenol, quercetin or curcumin. Liposomes were obtained by adding water, while PEVs by adding polyethylene glycol 400 and Oramix®CG110 to the water phase. Transmission electron microscopy, cryogenic-transmission electron microscopy and small- and wide-ang…

CurcuminMaterials scienceStatic ElectricitySus scrofaBiomedical EngineeringPolyethylene glycolBiochemistryBiomaterialsMicechemistry.chemical_compoundX-Ray DiffractionScattering Small AnglePEG ratioAnimalsEdemaRegenerationParticle SizeMolecular BiologyPeroxidaseSkinMice Inbred ICRLiposomeVesicleGeneral MedicineIn vitroDisease Models AnimalchemistryBiochemistryLiposomesCurcuminBiophysicsNanoparticlesFemaleQuercetinQuercetinWound healingBiotechnologyActa Biomaterialia
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Faceted phospholipid vesicles tailored for the delivery of Santolina insularis essential oil to the skin

2015

The aim of this work was to formulate Santolina insularis essential oil-loaded nanocarriers, namely Penetration Enhancer containing Vesicles (PEVs), evaluate the physico-chemical features and stability, and gain insights into their ability to deliver the oil to the skin.S. insularis essential oil was obtained by steam distillation, and was predominantly composed of terpenes, the most abundant being β-phellandrene (22.6%), myrcene (11.4%) and curcumenes (12.1%). Vesicles were prepared using phosphatidylcholine, and ethylene or propylene glycol were added to the water phase (10% (v/v)) to improve vesicle performances as delivery systems. Vesicles were deeply characterized by light scattering,…

Pig skinAsteraceaePolyvinyl alcohollaw.inventionchemistry.chemical_compoundColloid and Surface ChemistrylawPhosphatidylcholineOils VolatilePhospholipid vesiclesHumansPhysical and Theoretical ChemistryEssential oilCells CulturedPhospholipidsSkinLiposomeChromatographyTerpenesVesicleHuman keratinocytesSurfaces and InterfacesGeneral MedicinePenetration (firestop)CreamingchemistryEthylene/propylene glycolBiophysicsNanocarriersSantolina insularis essential oilBiotechnology
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Glycerosomes: Use of hydrogenated soy phosphatidylcholine mixture and its effect on vesicle features and diclofenac skin penetration.

2016

In this work, diclofenac was encapsulated, as sodium salt, in glycerosomes containing 10, 20 or 30% of glycerol in the water phase with the aim to ameliorate its topical efficacy. Taking into account previous findings, glycerosome formulation was modified, in terms of economic suitability, using a cheap and commercially available mixture of hydrogenated soy phosphatidylcholine (P90H). P90H glycerosomes were spherical and multilamellar; photon correlation spectroscopy showed that obtained vesicles were ∼131nm, slightly larger and more polydispersed than those made with dipalmitoylphosphatidylcholine (DPPC) but, surprisingly, they were able to ameliorate the local delivery of diclofenac, whic…

3003GlycerolKeratinocytesDiclofenacSwineSkin Absorptionpig skinPharmaceutical Science02 engineering and technology030226 pharmacology & pharmacyDSC03 medical and health scienceschemistry.chemical_compound0302 clinical medicineDiclofenacDrug Delivery SystemsOrgan Culture TechniquesDynamic light scatteringPhosphatidylcholinemedicineGlycerolAnimalsHumansCells CulturedChromatographyhydrogenated phospholipid vesiclesChemistryVesicle(trans)dermal drug delivery; DSC; hydrogenated phospholipid vesicles; keratinocytes; pig skin; rheology; 3003021001 nanoscience & nanotechnology(trans)dermal drug deliveryDipalmitoylphosphatidylcholineSkin penetrationDrug deliveryPhosphatidylcholinesrheologyHydrogenationSoybeans0210 nano-technologymedicine.drugInternational journal of pharmaceutics
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Delivery of liquorice extract by liposomes and hyalurosomes to protect the skin against oxidative stress injuries.

2015

Liquorice extract, obtained by percolation in ethanol of Glycyrrhiza glabra L. roots, was incorporated in liposomes and hyalurosomes, new phospholipid-sodium hyaluronate vesicles, and their protective effect against oxidative stress skin damages was probed. As a comparison, raw glycyrrhizin was also tested. All the vesicles were small in size (≤ 100 nm), with a highly negative zeta potential ensuring long-term stability, and able to incorporate a high amount of the extract. In vitro tests showed that the liquorice extract loaded in vesicles was able to scavenge DPPH free radical (80% inhibition) and to protect 3T3 fibroblasts against H2O2-induced oxidative stress, restoring the normal condi…

AntioxidantPolymers and PlasticsDPPHmedicine.medical_treatmentAdministration TopicalChemistry PharmaceuticalPharmacologymedicine.disease_causePlant Rootschemistry.chemical_compoundMiceDrug StabilityIn vivoCell MovementMaterials TestingMaterials ChemistrymedicineGlycyrrhizaAnimalsEdemaHyaluronic AcidGlycyrrhizinCell ProliferationSkinLiposomeDrug CarriersbiologyPlant ExtractsOrganic Chemistry3T3 CellsFree Radical Scavengersbiology.organism_classificationOxidative StresschemistryBiochemistryLiposomesGlycyrrhizaFemaleDrug carrierOxidative stressCarbohydrate polymers
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Inhalable polymer-glycerosomes as safe and effective carriers for rifampicin delivery to the lungs

2016

Rifampicin loaded glycerosomes, vesicles composed of phospholipids, glycerol and water, were combined with trimethyl chitosan chloride (TMC) to prepare TMC-glycerosomes or, alternatively, with sodium hyaluronate (HY) to obtain HY-glycerosomes. These new hybrid nanovesicles were tested as carriers for pulmonary delivery of rifampicin. Glycerosomes without polymers were also prepared and characterized. All vesicles were similar: they were spherical, multilamellar and able to incorporate good amount of rifampicin (EE%∼55%). The addition of the polymers to the formulations allowed an increase of mean diameter. All the glycerosomes, in particular HY-glycerosomes, were able to deliver the drug to…

GlycerolMaleDrugStaphylococcus aureusCell SurvivalPolymersmedia_common.quotation_subjectSodium hyaluronateMicrobial Sensitivity Tests02 engineering and technologyPharmacology030226 pharmacology & pharmacy03 medical and health scienceschemistry.chemical_compoundDrug Delivery Systems0302 clinical medicineColloid and Surface ChemistryMicroscopy Electron TransmissionIn vivoAdministration InhalationGlycerolmedicineAnimalsHumansTissue DistributionRats WistarPhysical and Theoretical ChemistryAntibiotics AntitubercularLungmedia_commonDrug CarriersLiposomeVesicleSurfaces and InterfacesGeneral Medicine021001 nanoscience & nanotechnologychemistryA549 CellsLiposomesNanoparticlesRifampin0210 nano-technologyDrug carrierRifampicinBiotechnologymedicine.drugColloids and Surfaces B: Biointerfaces
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Development of curcumin loaded sodium hyaluronate immobilized vesicles (hyalurosomes) and their potential on skin inflammation and wound restoring.

2015

In the present work new highly biocompatible nanovesicles were developed using polyanion sodium hyaluronate to form polymer immobilized vesicles, so called hyalurosomes. Curcumin, at high concentration was loaded into hyalurosomes and physico-chemical properties and in vitro/in vivo performances of the formulations were compared to those of liposomes having the same lipid and drug content. Vesicles were prepared by direct addition of dispersion containing the polysaccharide sodium hyaluronate and the polyphenol curcumin to a commercial mixture of soy phospholipids, thus avoiding the use of organic solvents. An extensive study was carried out on the physico-chemical features and properties o…

Materials scienceCurcuminBiocompatibilitySwineSodium hyaluronateBiophysicsBioengineeringDermatitisBiomaterialschemistry.chemical_compoundMicroscopy Electron TransmissionHyaluronic acidAnimalsHumansHyaluronic AcidCells CulturedSkinLiposomeWound HealingVesiclechemistryBiochemistryMechanics of MaterialsCeramics and CompositesCurcuminNanocarriersWound healingBiomaterials
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