0000000000434878

AUTHOR

Wiebke Storck

showing 4 related works from this author

Protein corona–mediated targeting of nanocarriers to B cells allows redirection of allergic immune responses

2018

Background Nanoparticle (NP)–based vaccines are attractive immunotherapy tools because of their capability to codeliver antigen and adjuvant to antigen-presenting cells. Their cellular distribution and serum protein interaction ("protein corona") after systemic administration and their effect on the functional properties of NPs is poorly understood. Objectives We analyzed the relevance of the protein corona on cell type–selective uptake of dextran-coated NPs and determined the outcome of vaccination with NPs that codeliver antigen and adjuvant in disease models of allergy. Methods The role of protein corona constituents for cellular binding/uptake of dextran-coated ferrous nanoparticles (DE…

0301 basic medicineendocrine systemOvalbuminCpG OligodeoxynucleotideT-Lymphocytesmedicine.medical_treatmentImmunologyMice Transgenic02 engineering and technologyComplement factor IComplement receptor03 medical and health sciencesImmune systemAntigenLectinsHypersensitivitymedicineAnimalsImmunology and AllergyFerrous CompoundsAntigensAnaphylaxisB-LymphocytesDrug CarriersMice Inbred BALB CVaccinesChemistryDextransImmunotherapyrespiratory system021001 nanoscience & nanotechnologyComplement systemMice Inbred C57BL030104 developmental biologyOligodeoxyribonucleotidesImmunologyNanoparticlesFemaleProtein Corona0210 nano-technologyAdjuvantJournal of Allergy and Clinical Immunology
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Inorganic Janus particles for biomedical applications.

2014

Based on recent developments regarding the synthesis and design of Janus nanoparticles, they have attracted increased scientific interest due to their outstanding properties. There are several combinations of multicomponent hetero-nanostructures including either purely organic or inorganic, as well as composite organic–inorganic compounds. Janus particles are interconnected by solid state interfaces and, therefore, are distinguished by two physically or chemically distinct surfaces. They may be, for instance, hydrophilic on one side and hydrophobic on the other, thus, creating giant amphiphiles revealing the endeavor of self-assembly. Novel optical, electronic, magnetic, and superficial pro…

Materials scienceBiocompatibilitysynthesisJanus particlesGeneral Physics and AstronomyNanoparticleNanotechnologyJanus particlesProtein CoronaReviewlcsh:Chemical technologylcsh:TechnologyNanomaterialshetero-nanoparticlesprotein coronaMulti-photon)AmphiphileNanotechnologylcsh:TP1-1185General Materials ScienceElectrical and Electronic Engineeringlcsh:ScienceNanoscopic scalePlasmonlcsh:Tbioimaging (CTlcsh:QC1-999Nanosciencelcsh:Qlcsh:PhysicsMRIBeilstein journal of nanotechnology
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A plasma protein corona enhances the biocompatibility of Au@Fe3O4 Janus particles

2015

AbstractAu@Fe3O4 Janus particles (JPs) are heteroparticles with discrete domains defined by different materials. Their tunable composition and morphology confer multimodal and versatile capabilities for use as contrast agents and drug carriers in future medicine. Au@Fe3O4 JPs have colloidal properties and surface characteristics leading to interactions with proteins in biological fluids. The resulting protein adsorption layer (“protein corona”) critically affects their interaction with living matter. Although Au@Fe3O4 JPs displayed good biocompatibility in a standardized in vitro situation, an in-depth characterization of the protein corona is of prime importance to unravel underlying mecha…

endocrine systemMaterials scienceBiocompatibilitySurface PropertiesJanus particlesBiophysicsContrast MediaJanus particlesProtein CoronaNanotechnologyBioengineeringMultimodal ImagingNanocapsulesBiomaterialsMiceCoated Materials BiocompatibleNanocapsulesAnimalsHumansTissue DistributionNanotoxicityParticle SizeMagnetite NanoparticlesEndothelial CellsBlood ProteinsAdhesionMagnetic Resonance ImagingNanomedicineProtein coronaNanotoxicologyMechanics of MaterialsIn vivo imagingBiophysicsCeramics and CompositesAdsorptionGoldParticle sizeTomography X-Ray ComputedProtein adsorptionBiomaterials
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Proteomic and Lipidomic Analysis of Nanoparticle Corona upon Contact with Lung Surfactant Reveals Differences in Protein, but Not Lipid Composition.

2015

Pulmonary surfactant (PS) constitutes the first line of host defense in the deep lung. Because of its high content of phospholipids and surfactant specific proteins, the interaction of inhaled nanoparticles (NPs) with the pulmonary surfactant layer is likely to form a corona that is different to the one formed in plasma. Here we present a detailed lipidomic and proteomic analysis of NP corona formation using native porcine surfactant as a model. We analyzed the adsorbed biomolecules in the corona of three NP with different surface properties (PEG-, PLGA-, and Lipid-NP) after incubation with native porcine surfactant. Using label-free shotgun analysis for protein and LC-MS for lipid analysis…

chemistry.chemical_classificationendocrine systemBiomoleculeGeneral EngineeringGeneral Physics and AstronomyNanoparticleProteinsProtein CoronaPulmonary SurfactantsPLGAchemistry.chemical_compoundAdsorptionchemistryBiochemistryPulmonary surfactantSelective adsorptionPEG ratioNanoparticlesGeneral Materials ScienceProtein CoronaBronchoalveolar Lavage FluidPhospholipidsACS nano
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