about
P184
Perspectives in flow-based microfluidic gradient generators for characterizing bacterial chemotaxisA Rechargeable Al/S Battery with an Ionic-Liquid Electrolyte.Distal modulation of bacterial cell-cell signalling in a synthetic ecosystem using partitioned microfluidics.Autonomous bacterial localization and gene expression based on nearby cell receptor densityChitosan: an integrative biomaterial for lab-on-a-chip devices.High to ultra-high power electrical energy storage.Simple SERS substrates: powerful, portable, and full of potential.Thermo-biolithography: a technique for patterning nucleic acids and proteins.The reaction current distribution in battery electrode materials revealed by XPS-based state-of-charge mapping.Biocompatible multi-address 3D cell assembly in microfluidic devices using spatially programmable gel formation.Chitosan-mediated in situ biomolecule assembly in completely packaged microfluidic devices.Fabrication of 3D core-shell multiwalled carbon nanotube@RuO2 lithium-ion battery electrodes through a RuO2 atomic layer deposition process.In situ generation of pH gradients in microfluidic devices for biofabrication of freestanding, semi-permeable chitosan membranes.Natural cellulose fiber as substrate for supercapacitor.Next-Generation Lithium Metal Anode Engineering via Atomic Layer Deposition.Patterned assembly of genetically modified viral nanotemplates via nucleic acid hybridization.Towards an in vivo biologically inspired nanofactory.Design optimization for bioMEMS studies of enzyme-controlled metabolic pathways.TEM-based metrology for HfO2 layers and nanotubes formed in anodic aluminum oxide nanopore structures.Programmable assembly of a metabolic pathway enzyme in a pre-packaged reusable bioMEMS device.Negating interfacial impedance in garnet-based solid-state Li metal batteries.An all-in-one nanopore battery array.Electronic modulation of biochemical signal generation.Interconnected mesoporous V2O5 electrode: impact on lithium ion insertion rate.Protein assembly onto patterned microfabricated devices through enzymatic activation of fusion pro-tag.Anodization control for barrier-oxide thinning and 3D interconnected pores and direct electrodeposition of nanowire networks on native aluminium substrates.TMV microarrays: hybridization-based assembly of DNA-programmed viral nanotemplates.Mechano-transduction of DNA hybridization and dopamine oxidation through electrodeposited chitosan network.Electrochemical Thin Layers in Nanostructures for Energy Storage.A fabrication platform for electrically mediated optically active biofunctionalized sites in BioMEMS.Coupling electrodeposition with layer-by-layer assembly to address proteins within microfluidic channels.Optically clear alginate hydrogels for spatially controlled cell entrapment and culture at microfluidic electrode surfaces.Solid Electrolyte Lithium Phosphous Oxynitride as a Protective Nanocladding Layer for 3D High-Capacity Conversion Electrodes.Protocols for Evaluating and Reporting Li-O2 Cell Performance.Biological nanofactories facilitate spatially selective capture and manipulation of quorum sensing bacteria in a bioMEMS device.DMSO-Li2O2 Interface in the Rechargeable Li-O2 Battery Cathode: Theoretical and Experimental Perspectives on Stability.MWCNT/V2O5 core/shell sponge for high areal capacity and power density Li-ion cathodes.Electrodeposition of a biopolymeric hydrogel: potential for one-step protein electroaddressing.Nanoengineering strategies for metal-insulator-metal electrostatic nanocapacitors.Direct SERS detection of contaminants in a complex mixture: rapid, single step screening for melamine in liquid infant formula.
P50
Q28821548-B943C51C-ABB8-4F11-B7E3-DA383A596636Q34534195-5A8B1DDD-4004-4C14-9B5F-BC59FC7A0E6CQ35563007-D497A85B-FC1B-44CF-85E2-D3DC695B3FDAQ36587208-C7F52BEB-4998-4E0E-9FE6-AFF6A9AB2E3BQ37793897-450E637C-55C5-415C-9DB6-13F929C3EC2BQ37945542-9AB45F71-C747-4048-B68C-B84897972AF1Q38173680-8231DD6C-40F7-499C-8AD1-CD6AC8EDA566Q38329316-90481453-02A8-49DA-B705-5796FDF0AE4CQ38847009-D9813F85-C2A7-44C6-AD27-540743637B88Q39532672-B38CEDA6-BC18-4E53-BD21-3042127E7662Q40270130-0C8CA9E0-022F-42A1-B14F-67BFAAC27E5DQ41679839-E44DAC46-D618-48E0-AD84-20E50AA58EADQ43213996-C9A2A935-067C-42C8-BC2F-D2FBCCA8D66EQ44644357-CAE969B1-55AB-49F1-B088-77852074E690Q46729371-F7E2B3E1-C61A-4791-8C9A-F3AF3B178ECDQ46747143-AD374623-83B5-4246-A9E2-DB88D9D7D455Q47432729-79699EB1-5A32-4FD5-90D5-ADA0B8FF7777Q47575802-B80EF04F-B4C2-4B98-8429-4D1315310A87Q47577835-75A65754-75C4-49CB-A14C-BA9C4B763DE9Q47883256-04372A93-7F06-462B-99FE-80408008B0D1Q48051561-3480178B-7193-4A02-AEB5-1D556FB1A542Q48254551-2677CB53-5E9B-4DEA-8FC5-C80D9D22A355Q48286097-F1F496E1-4D9E-40FF-806F-92C8047FAC23Q48954732-6C0151EF-E3B1-406B-A72B-FA9B4B70A56AQ50673733-8E20B6A4-3883-4932-BAD6-013030C5B3FBQ51020097-0E4B5BCB-6B7D-4327-B2F8-13185C7AF581Q51079391-29ADA049-E407-4658-9EDC-BE08A2975B80Q51092666-FD17D6C8-98E7-419A-BD26-BE203DD51801Q51135745-078DCF76-1A34-4C7F-ACA4-0179757C78A9Q51454725-1658090F-1D5C-4B7F-9531-EA2F2F6E3A2FQ51494015-71E93ED7-B02E-4E16-9283-43EF5D804950Q51532345-CE66E264-149B-4F40-BA51-796E1592E2A3Q51544010-066EA46B-A9EE-45C9-B1A6-1240226B53A0Q51553214-78FCAEDA-A771-4628-8831-A09AF6A21A91Q51558781-5A8992F1-460E-471F-BCDF-88D853C84CA8Q53244056-42AE3E5B-D364-4142-9AD0-55A436D6194FQ53365560-AC4C4831-7055-417B-9CF9-662E416C0BCAQ53384152-F755F31B-FF9E-4299-9EC7-818FCB4C05C0Q53385170-1E6653A7-2843-4F61-9139-C4D51A448D58Q53391846-B70A8856-8BEF-40A1-969F-86604D24E504
P50
description
mechanical engineer
@en
wetenschapper
@nl
հետազոտող
@hy
name
Gary W Rubloff
@ast
Gary W Rubloff
@nl
Gary W Rubloff
@sl
Gary W. Rubloff
@en
Gary W. Rubloff
@es
type
label
Gary W Rubloff
@ast
Gary W Rubloff
@nl
Gary W Rubloff
@sl
Gary W. Rubloff
@en
Gary W. Rubloff
@es
prefLabel
Gary W Rubloff
@ast
Gary W Rubloff
@nl
Gary W Rubloff
@sl
Gary W. Rubloff
@en
Gary W. Rubloff
@es
P1053
D-4142-2009
P185
P1960
OfPwvEEAAAAJ
P21
P31
P3829
P496
0000-0002-1901-3982