0000000000735461

AUTHOR

Maria Laura Di Giacinto

0000-0001-8542-0327

showing 2 related works from this author

Ionizing radiation-engineered nanogels as insulin nanocarriers for the development of a new strategy for the treatment of Alzheimer's disease

2016

A growing body of evidence shows the protective role of insulin in Alzheimer's disease (AD). A nanogel system (NG) to deliver insulin to the brain, as a tool for the development of a new therapy for Alzheimer's Disease (AD), is designed and synthetized. A carboxyl-functionalized poly(N-vinyl pyrrolidone) nanogel system produced by ionizing radiation is chosen as substrate for the covalent attachment of insulin or fluorescent molecules relevant for its characterization. Biocompatibility and hemocompatibility of the naked carrier is demonstrated. The insulin conjugated to the NG (NG-In) is protected by protease degradation and able to bind to insulin receptor (IR), as demonstrated by immunofl…

Materials scienceIonizing radiation processingmedicine.medical_treatmentBiophysicsBioengineering02 engineering and technologyBlood–brain barrierNeuroprotectionBiomaterialsInsulin nanocarrier03 medical and health sciencesNanogel0302 clinical medicineDrug Delivery SystemsAlzheimer DiseaseCell Line TumorRadiation Ionizingmedicinenanogels; ionizing radiation processing; insulin nanocarriers; Alzheimer's Disease; targeted drug deliveryAnimalsHumansInsulinNanotechnologyProtein kinase BDrug CarriersTargeted drug deliverybiologyInsulinBrainPovidoneAlzheimer's disease021001 nanoscience & nanotechnologyReceptor InsulinCell biologyNanostructuresMice Inbred C57BLInsulin receptormedicine.anatomical_structureTargeted drug deliveryBiochemistryMechanics of MaterialsCeramics and Compositesbiology.proteinSettore CHIM/07 - Fondamenti Chimici Delle TecnologieNanocarriers0210 nano-technology030217 neurology & neurosurgeryNanogel
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Temporal control of xyloglucan self-assembly into layered structures by radiation-induced degradation

2016

Partially degalactosylated xyloglucan from tamarind seeds (Deg-XG) is a very appealing biopolymer for the production of in situ gelling systems at physiological temperature. In this work, we observe that the morphology of hydrogels evolves towards high degrees of structural organization with time, yielding to dense stacks of thin membranes within 24 h of incubation at 37 °C. We also explore the possibility offered by gamma irradiation of controlling the time scale of this phenomenon, the final morphology and mechanical properties of the system. Structural and molecular modifications of Deg-XG with dose are investigated by FTIR, dynamic light scattering (DLS) and rotational viscosimetry. The…

Materials Chemistry2506 Metals and AlloysTime FactorsMaterials scienceMorphology (linguistics)Polymers and PlasticsCell Survival02 engineering and technologyengineering.material010402 general chemistry01 natural sciencesPolymerizationNeuroblastomachemistry.chemical_compoundBiopolymersDynamic light scatteringCell Line TumorMaterials TestingSpectroscopy Fourier Transform InfraredMaterials ChemistryHumansHigh energy-irradiationComposite materialFourier transform infrared spectroscopyXyloglucanGlucansPolymers and PlasticViscosityMedicine (all)Organic ChemistryTemperatureHydrogelsSelf-assembly021001 nanoscience & nanotechnology0104 chemical sciencesXyloglucanHydrogelMembranechemistryChemical engineeringGamma RaysSelf-healing hydrogelsengineeringXylansThermoresponsive biopolymerBiopolymerSelf-assemblyShear Strength0210 nano-technologyCarbohydrate Polymers
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