Location of a constriction in the lumen of a transmembrane pore by targeted covalent attachment of polymer molecules.
about
Creating a Single Sensing Zone within an Alpha-Hemolysin Pore Via Site Directed Mutagenesis.OccK channels from Pseudomonas aeruginosa exhibit diverse single-channel electrical signatures but conserved anion selectivityAnalysis of gating transitions among the three major open states of the OpdK channel.Subunit dimers of alpha-hemolysin expand the engineering toolbox for protein nanoporesRedesign of a plugged beta-barrel membrane protein.Impact of distant charge reversals within a robust beta-barrel protein porePartitioning of individual flexible polymers into a nanoscopic protein pore.Subunit composition of a bicomponent toxin: staphylococcal leukocidin forms an octameric transmembrane pore.Nanopore analysis of wild-type and mutant prion protein (PrP(C)): single molecule discrimination and PrP(C) kinetics.A photochemical approach to the lipid accessibility of engineered cysteinyl residues.Partitioning of a polymer into a nanoscopic protein pore obeys a simple scaling law.Single-molecule observation of protein adsorption onto an inorganic surface.Channel-forming bacterial toxins in biosensing and macromolecule deliveryPartitioning of differently sized poly(ethylene glycol)s into OmpF porinConductance and ion selectivity of a mesoscopic protein nanopore probed with cysteine scanning mutagenesis.Facilitated translocation of polypeptides through a single nanopore.Applications of biological pores in nanomedicine, sensing, and nanoelectronicsSteric selectivity in Na channels arising from protein polarization and mobile side chains.Inspection of the engineered FhuA ΔC/Δ4L protein nanopore by polymer exclusion.Real-time single-molecule electronic DNA sequencing by synthesis using polymer-tagged nucleotides on a nanopore array.Protein sensing with engineered protein nanoporesEnhanced translocation of single DNA molecules through alpha-hemolysin nanopores by manipulation of internal chargeInteraction of heparins and dextran sulfates with a mesoscopic protein nanopore.Properties of Bacillus cereus hemolysin II: a heptameric transmembrane pore.Orientation of the OmpF Porin in Planar Lipid Bilayers.Scam feels the pinch.Surface accessibility and conformational changes in the N-terminal domain of type I inositol trisphosphate receptors: studies using cysteine substitution mutagenesis.Single DNA rotaxanes of a transmembrane pore protein.Aberrantly Large Single-Channel Conductance of Polyhistidine Arm-Containing Protein Nanopores.pH controlled gating of toxic protein pores by dendrimers.
P2860
Q30153418-2BC84CD4-4ED7-4071-A856-2536277303D0Q30155366-679265E5-C9CB-4E09-862C-F3CDF4F7E25EQ30155557-7A50CD1F-1476-4675-9109-54306B4022B6Q30155848-4ED7D0F2-AD45-4B3B-8A23-4196F2178097Q30155915-99A39278-4CE9-4A97-BB81-4BFB8C5BDC2FQ30156821-DFFBCB1A-7D9A-4241-8FCF-0E16A5ADF5BFQ30164605-BC281BBA-D6AC-44F1-BE22-9A48848053FFQ30167424-F47CAA96-7522-4839-99EF-E7344AA60319Q30426958-ABC1FB26-6E02-4D18-B5E4-F8AA8A0CE4F7Q30451175-1B301F19-AE70-4546-8940-7F2907BA1067Q33943002-F7B7C24D-5A98-43A9-B2C7-CD1E7E9D3C50Q34048996-EC899047-0C05-4E22-8FF7-CAA84EC68B04Q34101821-113A620C-5402-492F-B2FC-0179E7B7B4A0Q34179668-52F347B4-A203-4BC6-BCF5-1C28068CEB7EQ34351666-8C5A3D19-C896-44A9-98E8-4F3A861FC7DEQ35024441-0B8A8801-58B4-4B2C-93E0-FC3BDA704FEDQ35063550-07092C1F-F796-4CDD-AED6-5B7D29C7D09DQ35963392-691382BA-F132-44FE-9E70-9DC274CF6812Q36439499-73BA8C90-14A4-4D89-9386-A0BDC091779EQ36904950-0A9004EA-4656-4A8B-B071-3FB10C22BCFCQ37003672-ACA19683-2EED-4468-89A1-5D7E372CEC5FQ37018765-70DF2A82-3ACA-49B8-8F73-A0E257805B2FQ37443804-3CE1F088-60D1-4833-9449-E706224CDC0CQ38270075-DE19927D-BA80-445F-A87C-D30432157351Q38769657-1D7EC86C-5099-48B3-9CEC-C48F5123C418Q41918163-EF45F965-7EEB-4224-8929-88B77E5C02FEQ41976206-912E79C5-E663-4AE0-87BE-150A4E72B8A2Q42796877-6FAF5B5E-8918-4007-B9A8-8010D736EB01Q47789965-879B618C-43B4-4BC2-A5F6-1808A70143B2Q51690375-4B69033C-223C-4617-B714-310938BBF0AD
P2860
Location of a constriction in the lumen of a transmembrane pore by targeted covalent attachment of polymer molecules.
description
2001 nî lūn-bûn
@nan
2001年の論文
@ja
2001年学术文章
@wuu
2001年学术文章
@zh-cn
2001年学术文章
@zh-hans
2001年学术文章
@zh-my
2001年学术文章
@zh-sg
2001年學術文章
@yue
2001年學術文章
@zh
2001年學術文章
@zh-hant
name
Location of a constriction in ...... tachment of polymer molecules.
@ast
Location of a constriction in ...... tachment of polymer molecules.
@en
type
label
Location of a constriction in ...... tachment of polymer molecules.
@ast
Location of a constriction in ...... tachment of polymer molecules.
@en
prefLabel
Location of a constriction in ...... tachment of polymer molecules.
@ast
Location of a constriction in ...... tachment of polymer molecules.
@en
P2093
P2860
P356
P1476
Location of a constriction in ...... tachment of polymer molecules.
@en
P2093
P2860
P304
P356
10.1085/JGP.117.3.239
P577
2001-03-01T00:00:00Z