Polymer translocation through alpha-hemolysin pore with tunable polymer-pore electrostatic interaction.
about
The effects of diffusion on an exonuclease/nanopore-based DNA sequencing engine.Pressure-voltage trap for DNA near a solid-state nanopore.Channel-forming bacterial toxins in biosensing and macromolecule deliveryDetermination of Molecular Weights in Polyelectrolyte Mixtures Using Polymer Translocation through a Protein Nanopore.Electrophoretic mobilities of counterions and a polymer in cylindrical pores.Tribological effects on DNA translocation in a nanochannel coated with a self-assembled monolayer.A kinetic analysis of protein transport through the anthrax toxin channel.Characterizing and controlling the motion of ssDNA in a solid-state nanopore.Translocation of single-stranded DNA through the α-hemolysin protein nanopore in acidic solutionsTranslocation of a heterogeneous polymer.A Protein Nanopore-Based Approach for Bacteria SensingPolymer capture by α-hemolysin pore upon salt concentration gradient.Slowing down single-molecule trafficking through a protein nanopore reveals intermediates for peptide translocationEffect of charge patterns along a solid-state nanopore on polyelectrolyte translocation.Role of Electroosmosis in the Permeation of Neutral Molecules: CymA and Cyclodextrin as an Example.Simulations of inorganic-bioorganic interfaces to discover new materials: insights, comparisons to experiment, challenges, and opportunities.Nanoscale Investigation of Generation 1 PAMAM Dendrimers Interaction with a Protein NanoporeOn the Lubensky-Nelson model of polymer translocation through nanopores.High Temperature Extends the Range of Size Discrimination of Nonionic Polymers by a Biological Nanopore.Polymer translocation through a gradient channel.Porphyrin-Assisted Docking of a Thermophage Portal Protein into Lipid Bilayers: Nanopore Engineering and Characterization.Role of non-equilibrium conformations on driven polymer translocation.Flow-induced translocation of polymers through a fluidic channel: a dissipative particle dynamics simulation study.If Squeezed, a Camel Passes Through the Eye of a Needle: Voltage-Mediated Stretching of Dendrimers Facilitates Passage Through a Nanopore.Temperature dependence of the translocation time of polymer through repulsive nanopores.Fluctuating bottleneck model studies on kinetics of DNA escape from α-hemolysin nanopores.Driven diffusion against electrostatic or effective energy barrier across α-hemolysin.Evaluating the applicability of the Fokker-Planck equation in polymer translocation: a Brownian dynamics study.Simulation study on the translocation of a partially charged polymer through a nanopore.Numerical and theoretical study on the mechanism of biopolymer translocation process through a nano-pore.Electrostatic Control of Polymer Translocation Speed through α‑Hemolysin Protein Pore.
P2860
Q33941075-DF234868-800C-457F-8835-CCA4888822B7Q34038975-00097CC8-83C4-4C67-9E5F-38F29040EFC2Q34101821-AA1B9134-E09B-4521-BD30-B60DEB995C28Q34194351-1621E3B3-B0E0-4CEC-9187-087C20F2E808Q34296464-0BE4DC87-26B0-435D-B5E7-C754E21DDDCBQ34454065-1D0B2387-E484-4ED8-9903-0B534766434EQ35018155-D4149BE9-2C0E-419F-BDA5-99839AF366FDQ35512664-208F6629-01E3-4E7A-A795-2DFC6C6ABE92Q36452845-64A29F58-A3A6-46C3-8CE1-15CDD15BE416Q37082313-DE19ADD5-3BC3-453D-90A7-C91D1B4024CFQ37415921-ED43FF5C-4D6A-411E-9587-B3951BC499A2Q37491074-2535E237-1CFD-4978-910E-F8C529B54D95Q37517203-95507D93-9513-48C5-AC17-1D6AE98C0621Q37685944-A54ECD8C-FDE1-4A47-B65B-9077C23C26A7Q38273116-D17C38B1-854B-4441-84A2-9A1457CB5013Q38691919-51BD5F23-4A79-4150-8523-F061C94CF23BQ41094928-D351A45D-3810-4B4C-8052-32B048D31780Q41963716-4E31B597-7099-4245-974C-555EC87C980FQ42037655-7430D476-BAFF-41CE-9F08-6F38244D79B5Q43571594-A93536D2-93EC-4A4C-8B87-FD6631AC7932Q47365910-71D1986C-4214-4DE5-95FD-AD4D17AF9034Q48248955-BFBE0E16-BAAB-4FB2-9F4F-D759FCA25A8FQ48570203-6F2F236B-EB40-403A-BCB5-EDDE2AD39920Q49605458-8B0A2EC0-7984-43E3-9425-E1D3B8085CFDQ50522739-0436D918-4878-4B9A-AF8E-37B59E48F6CFQ50695205-19CCBEE6-389B-41EA-95AD-30AD6B150A60Q50787421-16372E73-EFDB-4C94-9C0C-CDD7E7B292FEQ51085215-26034FF4-F25A-4081-A779-EB1C563A3094Q51340386-B6E70A75-01A5-4ABF-B4E8-48B0B241A49DQ51541631-103C4DF4-9F86-4F92-96EA-41B23E791262Q55432836-896CE21F-D054-4F08-BAD1-62D3E5399E1B
P2860
Polymer translocation through alpha-hemolysin pore with tunable polymer-pore electrostatic interaction.
description
2010 nî lūn-bûn
@nan
2010年の論文
@ja
2010年論文
@yue
2010年論文
@zh-hant
2010年論文
@zh-hk
2010年論文
@zh-mo
2010年論文
@zh-tw
2010年论文
@wuu
2010年论文
@zh
2010年论文
@zh-cn
name
Polymer translocation through ...... ore electrostatic interaction.
@en
Polymer translocation through ...... ore electrostatic interaction.
@nl
type
label
Polymer translocation through ...... ore electrostatic interaction.
@en
Polymer translocation through ...... ore electrostatic interaction.
@nl
prefLabel
Polymer translocation through ...... ore electrostatic interaction.
@en
Polymer translocation through ...... ore electrostatic interaction.
@nl
P2860
P356
P1476
Polymer translocation through ...... ore electrostatic interaction.
@en
P2093
Chiu Tai Andrew Wong
M Muthukumar
P2860
P304
P356
10.1063/1.3464333
P407
P577
2010-07-01T00:00:00Z