about
Water-dispersible magnetic carbon nanotubes as T2-weighted MRI contrast agents.Metal-free and MRI visible theranostic lyotropic liquid crystal nitroxide-based nanoparticles.Nanocapsules based on mPEGylated artesunate prodrug and its cytotoxicity.Nitroxide-loaded hexosomes provide MRI contrast in vivo.Nanomicelles based on a boronate ester-linked diblock copolymer as the carrier of doxorubicin with enhanced cellular uptake.High-Throughput Screening of Saturated Fatty Acid Influence on Nanostructure of Lyotropic Liquid Crystalline Lipid Nanoparticles.Polypropylene microtitre plates modified with [Cr(OH)6]3- for enhanced ELISA sensitivity.Determining the limit of detection of surface bound antibody.Orientation and characterization of immobilized antibodies for improved immunoassays (Review).Dual-modality NIRF-MRI cubosomes and hexosomes: High throughput formulation and in vivo biodistribution.Lipid-PEG conjugates sterically stabilize and reduce the toxicity of phytantriol-based lyotropic liquid crystalline nanoparticles.Surface immobilized antibody orientation determined using ToF-SIMS and multivariate analysis.Colloidally stabilized magnetic carbon nanotubes providing MRI contrast in mouse liver tumors.A QCM-D and SAXS Study of the Interaction of Functionalised Lyotropic Liquid Crystalline Lipid Nanoparticles with siRNA.Nanotopographic surfaces with defined surface chemistries from amyloid fibril networks can control cell attachment.ToF-SIMS and Principal Component Analysis Investigation of Denatured, Surface-Adsorbed Antibodies.Glycerol monooleate-based nanocarriers for siRNA delivery in vitro.Surface Adsorbed Antibody Characterization Using ToF-SIMS with Principal Component Analysis and Artificial Neural Networks.Epidermal growth factor receptor-targeted lipid nanoparticles retain self-assembled nanostructures and provide high specificity.One-step method for generating PEG-like plasma polymer gradients: chemical characterization and analysis of protein interactions.Surface "click" chemistry on brominated plasma polymer thin films.Mesoporous europo-gadolinosilicate nanoparticles as bimodal medical imaging agents and a potential theranostic platform.Chromium functionalized diglyme plasma polymer coating enhances enzyme-linked immunosorbent assay performance.Characterization of low-fouling ethylene glycol containing plasma polymer films.X-ray and neutron reflectometry study of glow-discharge plasma polymer films.The effect of RAFT-derived cationic block copolymer structure on gene silencing efficiency.UiO-66 MOF end-face-coated optical fiber in aqueous contaminant detection.A chemiluminescent sandwich ELISA enhancement method using a chromium (III) coordination complex.Non-lamellar lyotropic liquid crystalline nanoparticles enhance the antibacterial effects of rifampicin against Staphylococcus aureus.Protic ionic liquids (PILs) nanostructure and physicochemical properties: development of high-throughput methodology for PIL creation and property screens.New insights into the substrate-plasma polymer interface.An arm-first approach to cleavable mikto-arm star polymers by RAFT polymerizationPhotoinitiated Alkyne–Azide Click and Radical Cross-Linking Reactions for the Patterning of PEG HydrogelsFabrication of asymmetric “Janus” particles via plasma polymerizationOne step multifunctional micropatterning of surfaces using asymmetric glow discharge plasma polymerizationSalt induced lamellar to bicontinuous cubic phase transitions in cationic nanoparticlesHigh-Throughput Production of Chromium(III) Complexes for Antibody ImmobilizationVisualizing ToF-SIMS Hyperspectral Imaging Data Using Color-Tagged Toroidal Self-Organizing MapsToF-SIMS and Machine Learning for Single-Pixel Molecular Discrimination of an Acrylate Polymer Microarray
P50
Q30676644-EF19B374-39A1-4080-A5BB-F2E3AF0E5011Q34114915-0883F7C3-1447-464E-A5CB-2F002E00E3DEQ35066152-CCC8B2AE-0C21-492B-B901-CD754A9C46D3Q35198439-0C3BE139-99B9-4DAF-9896-7A9B789E7302Q35923157-649553E2-95E9-49F3-9715-0EFC2C650C5AQ35972716-B1818B94-E32D-4AD4-8755-E404C9475D4CQ36330909-7369562F-61DE-4283-ABB2-A805901AAB1DQ38601916-F22E3637-4935-44D4-98F1-B3BFE4C2EC86Q38744015-1E09879E-869C-423E-842D-DAACC60858FAQ38781503-792B2096-5726-4A7A-A99B-37B4B477BB86Q38835959-061C6BE6-7C7A-4706-BB83-A7C4ADBB6792Q38866434-6489F642-4DE2-4CD4-AC25-70DE216D1750Q38913200-B9303C55-7E83-44B1-8632-D464406D1880Q38944600-DAF867D2-E591-4948-9623-A48114DB9EE4Q39148300-B9E8D7B3-5330-4981-A44C-A18D52B8A92FQ39313348-4D4ABFC3-1C57-4535-B96F-928F9BF800A1Q39314993-E3EFADB5-921D-471E-903F-6C1F3E6731F4Q39520984-D0F6566B-2734-4DFD-B808-7F14E44F31FAQ41606644-64527EAF-CAB1-4651-8304-5C18A15CF829Q42941567-70ED62ED-749C-44F5-8D90-B394A2ECFB83Q43245008-1F6F5E37-CCE8-4F32-8FE1-DBFB63BCCCE6Q46158611-BF46CFDE-765F-4C6B-9E8A-FF3FF0356F66Q46460988-2C05E0F1-5CE6-4139-8715-C7358545AED4Q46728134-239FAE93-76C8-4A03-A0AF-7998F5E02170Q46868775-58519E40-73A9-4C98-996B-D142B55F8FE5Q50493056-29158B1D-F8F8-4C37-830A-5A3B323B85BCQ51370249-465EDE78-D1FE-4C69-9B11-A2DDE376236BQ51482801-ABDD0627-DF9B-4860-9F80-E181F6AFF897Q51746931-E8E2DFC6-FE49-491E-A275-67B9F9D62107Q53368938-2D9F67B2-404A-4AA8-B1B6-56711477C30AQ55054219-F465A9B5-185B-4806-B535-085386A68EFBQ57183431-32BF2223-3C70-409F-8722-880C499334A4Q57645075-5709F6D7-135E-42FB-9088-63C067D49E8EQ57645215-59CC3315-470C-4B78-93BC-2F32EF021A25Q83195423-D9536AB9-2FBE-4B5C-AAFE-292F62BBB0BCQ83503038-C0897097-5C88-40AC-9E23-83EF5D2D45A0Q88360886-1B1D6050-193F-4532-98FE-954936CB7A77Q90251903-43B57FD9-0F90-4532-A42D-E5F743D61973Q90791098-0CD57128-F589-4FA6-A009-40C1D3CE3A15
P50
description
Forscher
@de
chercheur
@fr
investigador
@es
researcher
@en
wetenschapper
@nl
հետազոտող
@hy
研究者
@zh
name
Benjamin W Muir
@ast
Benjamin W Muir
@en
Benjamin W Muir
@es
Benjamin W Muir
@nl
type
label
Benjamin W Muir
@ast
Benjamin W Muir
@en
Benjamin W Muir
@es
Benjamin W Muir
@nl
prefLabel
Benjamin W Muir
@ast
Benjamin W Muir
@en
Benjamin W Muir
@es
Benjamin W Muir
@nl
P1153
7004347021
P21
P31
P496
0000-0002-8858-3217