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Volumn 112, Issue 19, 2008, Pages 5950-5954
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Simulation of tunneling in enzyme catalysis by combining a biased propagation approach and the quantum classical path method: Application to lipoxygenase
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Author keywords
[No Author keywords available]
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Indexed keywords
ACTIVATION ENERGY;
CARRIER MOBILITY;
CRACK PROPAGATION;
DEUTERIUM;
DYNAMICS;
ENZYMES;
FREE ENERGY;
FUNCTIONS;
HYDROGEN;
ISOTOPES;
MOLECULAR DYNAMICS;
PROTEINS;
QUANTUM CHEMISTRY;
WAVE FUNCTIONS;
ACTIVATION BARRIERS;
ACTIVATION FREE ENERGIES;
CLASSICAL-QUANTUM;
DYNAMICAL EFFECTS;
ENZYME CATALYSIS;
FREE ENERGY CHANGE;
ISOTOPE EFFECTS;
KINETIC ISOTOPE EFFECT;
LIPOXYGENASE;
LONG TIME;
MOLECULAR DYNAMICS SIMULATION;
NUCLEAR WAVE FUNCTIONS;
PATH METHOD;
PROTON POTENTIALS;
QUANTUM-CLASSICAL;
QUANTUM-MECHANICAL;
REACTING SYSTEMS;
SOYBEAN LIPOXYGENASE;
VALENCE BOND;
RATE CONSTANTS;
HYDROGEN;
LIPOXYGENASE;
LIPOXYGENASE L 1;
LIPOXYGENASE L-1;
ARTICLE;
CATALYSIS;
CHEMICAL STRUCTURE;
CHEMISTRY;
COMPUTER SIMULATION;
ENZYMOLOGY;
METABOLISM;
QUANTUM THEORY;
SOYBEAN;
SURFACE PROPERTY;
CATALYSIS;
COMPUTER SIMULATION;
HYDROGEN;
LIPOXYGENASE;
MOLECULAR STRUCTURE;
QUANTUM THEORY;
SOYBEANS;
SURFACE PROPERTIES;
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EID: 44949221121
PISSN: 15206106
EISSN: None
Source Type: Journal
DOI: 10.1021/jp0758420 Document Type: Article |
Times cited : (43)
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References (41)
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