about
Fundamental studies of nanofluidics: nanopores, nanochannels, and nanopipetsEnhancing Electrochemical Detection by Scaling Solid State Nanogaps.Self-induced redox cycling coupled luminescence on nanopore recessed disk-multiscale bipolar electrodes.Single-Molecule Electrochemistry on a Porous Silica-Coated Electrode.Individual Template-Stripped Conductive Gold Pyramids for Tip-Enhanced Dielectrophoresis.Do-it-yourself guide: how to use the modern single-molecule toolkitSingle-molecule bioelectronics.Stabilizing nanometer scale tip-to-substrate gaps in scanning electrochemical microscopy using an isothermal chamber for thermal drift suppression.Varieties of imaging with scanning probe microscopesConformational transitions monitored for single molecules in solution.Electrochemical Protease Biosensor Based on Enhanced AC Voltammetry Using Carbon Nanofiber Nanoelectrode ArraysA hydrogen-bonded electron-tunneling circuit reads the base composition of unmodified DNA.Electrochemical Sensing and Imaging Based on Ion Transfer at Liquid/Liquid Interfaces.Electrochemistry in nanoscopic volumes.Combined optical and electrochemical methods for studying electrochemistry at the single molecule and single particle level: recent progress and perspectives.Nanocavity crossbar arrays for parallel electrochemical sensing on a chip.Redox cycling in nanoporous electrochemical devices.Fabrication of a Horizontal and a Vertical Large Surface Area Nanogap Electrochemical Sensor.Testing and validating electroanalytical simulations.Emerging tools for studying single entity electrochemistry.Self-Limiting Adsorption of WO3 Oligomers on Oxide Substrates in Solution.Potential-dependent single molecule blinking dynamics for flavin adenine dinucleotide covalently immobilized in zero-mode waveguide array of working electrodes.Electrochemistry at single molecule occupancy in nanopore-confined recessed ring-disk electrode arrays.Single occupancy spectroelectrochemistry of freely diffusing flavin mononucleotide in zero-dimensional nanophotonic structures.Gold Nanorod Enhanced Fluorescence Enables Single-Molecule Electrochemistry of Methylene Blue.Semiempirical modeling of electrochemical charge transfer.Quasi-reference electrodes in confined electrochemical cells can result in in situ production of metallic nanoparticles.Nanopore Electrochemistry: A Nexus for Molecular Control of Electron Transfer Reactions.3D electrochemical and ion current imaging using scanning electrochemical-scanning ion conductance microscopy.Single molecular catalysis of a redox enzyme on nanoelectrodes.Single-molecule electrochemistry in nanochannels: probing the time of first passage.Innovations in biomedical nanoengineering: nanowell array biosensor.Transient electrochemistry: beyond simply temporal resolution.Brownian motion in electrochemical nanodevicesTransistor Functions Based on Electrochemical Rectification
P2860
Q26825104-1B697F2A-4CE7-443A-A994-3E3A1265A217Q33824283-7CBD453C-A224-4551-AEAF-DBC314BB16B9Q33851557-48D7A299-32EC-4A6F-81C9-BB85F76326DEQ33922148-BE46ED30-B251-4FAE-A8CB-C1BBB779283DQ34732103-A0E99716-D361-4326-B635-952B0E654759Q34782759-5B452CA9-1748-4505-B154-C18E5B41C578Q35768300-2135EDF3-48C2-47BC-8F7D-7675C2A2E22EQ35894956-944F3E32-E87B-442E-A530-9C4857ACBC3BQ36091530-F3C16FD7-5EF7-4B55-927E-D906B15C379EQ36806187-69EDB5B5-0C49-4542-A133-4FF3CF09FC0AQ36960869-69A88DEC-B4D8-4302-8E30-D40BFDD17AA7Q37181893-77D4C314-CC39-4847-B38F-44A5D5A561A5Q37398642-A2AD0D68-8334-4ADD-A06C-ECA6380A5082Q37802224-EE4EA017-6B96-47F2-AD5A-0E39347ACF2AQ38160336-5AD21CAB-83AB-4619-937C-0B960D67C865Q39139152-2545BE84-0087-4933-B470-41E33F2ECD1EQ39312587-70F31CFA-DA8A-462A-A726-3CE326782F8CQ40008982-92F992E4-A286-408C-9926-65E7D7F8D1FCQ40255877-123CB0BD-D099-403F-82BA-CFA563BC8425Q40548468-310FAB06-8FEC-4318-9423-4BC7DB0B633EQ41722101-4798B7BD-FA07-49BE-AC56-E923194550F0Q45929143-F9291A1A-F720-4910-B92A-4FF5E17B6478Q46480956-C1BE20B1-0B00-46A1-A785-B3FEE6D72CFEQ46664107-7CCBBC7C-E424-4069-80B5-8923E573B923Q48046615-4F678B7B-5EAF-4B8F-9B3B-71329F9D30D6Q48062883-A9510084-A6E3-4084-827B-4DE8F1A47703Q48130337-D39BD54D-86DA-402B-B3A4-6C79B962FFB5Q49385015-45035580-1F2D-45D8-86D6-7ACE3976BB35Q49798234-4060644A-1223-4AD1-A34C-E9B4721DDF12Q51143539-604EC8C9-6805-4DCD-9FA7-BBA78E9AE5E5Q51753554-9E806493-C8DA-4FC9-93C3-B00281049AD4Q52578979-90B3A86E-F526-4E58-9FBF-5AEC89F06009Q53286637-E7CD7D4F-3AF4-401B-99B1-A6CF6DB9C131Q58012148-225D59B8-6C4F-4A13-BDF4-3FA9BC263618Q58058977-2783D604-F667-456B-BCE9-E5DABBDE77D9
P2860
description
1995 nî lūn-bûn
@nan
1995 թուականի Փետրուարին հրատարակուած գիտական յօդուած
@hyw
1995 թվականի փետրվարին հրատարակված գիտական հոդված
@hy
1995年の論文
@ja
1995年論文
@yue
1995年論文
@zh-hant
1995年論文
@zh-hk
1995年論文
@zh-mo
1995年論文
@zh-tw
1995年论文
@wuu
name
Electrochemical detection of single molecules.
@ast
Electrochemical detection of single molecules.
@en
Electrochemical detection of single molecules.
@nl
type
label
Electrochemical detection of single molecules.
@ast
Electrochemical detection of single molecules.
@en
Electrochemical detection of single molecules.
@nl
prefLabel
Electrochemical detection of single molecules.
@ast
Electrochemical detection of single molecules.
@en
Electrochemical detection of single molecules.
@nl
P1433
P1476
Electrochemical detection of single molecules.
@en
P2860
P304
P356
10.1126/SCIENCE.267.5199.871
P407
P577
1995-02-01T00:00:00Z