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Volumn 31, Issue 2, 2010, Pages 343-350
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A stationary-wave model of enzyme catalysis
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Author keywords
Debye theory; Enzyme catalysis; Mode coupling; Nonlinear dynamics
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Indexed keywords
CELL DIAMETERS;
CONDENSED PHASE;
COUPLED OSCILLATORS;
DEBYE THEORY;
DRIVEN SYSTEM;
ENZYME CATALYSIS;
EXTERNAL FORCE;
INTERNAL PARAMETERS;
LIQUID WATER;
MODE COUPLING;
NON-LINEAR DYNAMICS;
PARAMETER SPACES;
PROTEIN CORE;
REFERENCE OSCILLATORS;
TIME DEPENDENCE;
TWO-REGIME;
WAVE MODELS;
CATALYSIS;
COMPUTER CRIME;
DEBYE TEMPERATURE;
DYNAMICS;
ENZYMES;
GENE EXPRESSION;
LIGHT POLARIZATION;
OSCILLATORS (MECHANICAL);
POTENTIAL ENERGY;
OSCILLATORS (ELECTRONIC);
ENZYME;
WATER;
ARTICLE;
BINDING SITE;
BIOCATALYSIS;
BIOLOGICAL MODEL;
CHEMICAL STRUCTURE;
CHEMISTRY;
COMPUTER SIMULATION;
METABOLISM;
NONLINEAR SYSTEM;
QUANTUM THEORY;
THERMODYNAMICS;
BINDING SITES;
BIOCATALYSIS;
COMPUTER SIMULATION;
ENZYMES;
MODELS, BIOLOGICAL;
MODELS, MOLECULAR;
NONLINEAR DYNAMICS;
QUANTUM THEORY;
THERMODYNAMICS;
WATER;
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EID: 76149097495
PISSN: 01928651
EISSN: 1096987X
Source Type: Journal
DOI: 10.1002/jcc.21264 Document Type: Article |
Times cited : (7)
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References (22)
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