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Volumn 68, Issue 4, 2003, Pages
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Single stranded DNA translocation through a nanopore: A master equation approach
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Author keywords
[No Author keywords available]
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Indexed keywords
CELL MEMBRANES;
ELECTRIC POTENTIAL;
GENES;
MATHEMATICAL MODELS;
MATRIX ALGEBRA;
POROSITY;
PROBABILITY DENSITY FUNCTION;
STIFFNESS;
THERMAL EFFECTS;
MEMBRANE CHANNELS;
TRANSLOCATION;
DNA;
DNA;
ACTIVE TRANSPORT;
BIOLOGICAL MODEL;
CELL MEMBRANE;
CELL MEMBRANE PERMEABILITY;
CHEMICAL MODEL;
CHEMISTRY;
COMPARATIVE STUDY;
COMPUTER SIMULATION;
DIFFUSION;
DNA BASE COMPOSITION;
ELECTROCHEMISTRY;
ELECTROMAGNETIC FIELD;
ELECTROPORATION;
EVALUATION STUDY;
MEMBRANE POTENTIAL;
METABOLISM;
MOLECULAR GENETICS;
NANOTECHNOLOGY;
NUCLEOTIDE SEQUENCE;
PHYSIOLOGY;
POROSITY;
PROCEDURES;
RADIATION RESPONSE;
STATIC ELECTRICITY;
STATISTICAL MODEL;
VALIDATION STUDY;
BASE COMPOSITION;
BASE SEQUENCE;
BIOLOGICAL TRANSPORT, ACTIVE;
CELL MEMBRANE;
CELL MEMBRANE PERMEABILITY;
COMPUTER SIMULATION;
DIFFUSION;
DNA;
ELECTROCHEMISTRY;
ELECTROMAGNETIC FIELDS;
ELECTROPORATION;
MEMBRANE POTENTIALS;
MODELS, BIOLOGICAL;
MODELS, CHEMICAL;
MODELS, STATISTICAL;
MOLECULAR SEQUENCE DATA;
NANOTECHNOLOGY;
POROSITY;
STATIC ELECTRICITY;
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EID: 84990946704
PISSN: 1063651X
EISSN: None
Source Type: Journal
DOI: 10.1103/PhysRevE.68.041910 Document Type: Article |
Times cited : (44)
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References (17)
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