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McCammon A.J., Harvey S. — Dynamics Of Proteins And Nucleic Acids
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Название: Dynamics Of Proteins And Nucleic Acids
Авторы: McCammon A.J., Harvey S.
Аннотация: This book is a self-contained introduction to the theory of atomic motion in proteins and nucleic acids. An understanding of such motion is essential because it plays a crucially important role in biological activity. The authors, both of whom are well known for their work in this field, describe in detail the major theoretical methods that are likely to be useful in the computer-aided design of drugs, enzymes and other molecules. A variety of theoretical and experimental studies is described and these are critically analyzed to provide a comprehensive picture of dynamic aspects of biomolecular structure and function. The book will be of interest to graduate students and research workers in structural biochemistry (X-ray diffraction and NMR), theoretical chemistry (liquids and polymers), biophysics, enzymology, molecular biology, pharmaceutical chemistry, genetic engineering and biotechnology.
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Рубрика: Медицина и здравоохранение /
Статус предметного указателя: Готов указатель с номерами страниц
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Год издания: 1987
Количество страниц: 234
Добавлена в каталог: 20.11.2006
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Предметный указатель
Motions, intramolecular, hinge bending, lac repressor 169—170
Motions, intramolecular, hinge bending, ligand binding 155
Motions, intramolecular, hinge bending, lysozyme 90 140—144
Motions, intramolecular, hinge bending, ribonuclease 90
Motions, intramolecular, hinge bending, tRNA 147—149
Motions, intramolecular, hydrogen bonds 103—104 110—111
Motions, intramolecular, ligand binding 154—155 165—166
Motions, intramolecular, local unfolding 31 142—145
Motions, intramolecular, methyl groups 100—102
Motions, intramolecular, nucleic acids 31—33
Motions, intramolecular, packing rearrangements 30
Motions, intramolecular, proteins 28—31
Motions, intramolecular, rapid 28 31 79—116
Motions, intramolecular, rapid, nucleic acids 105—115
Motions, intramolecular, rapid, proteins 80—105
Motions, intramolecular, secondary structure, effects 32
Motions, intramolecular, sugar repuckering 32 126—129
Motions, intramolecular, table 29
Motions, intramolecular, time scale 115
Motions, intramolecular, time scale, table 29
Motions, intramolecular, torsions 111—112 117
Motions, intramolecular, tyrosine rotation 28 31 54 118—123 172
Motions, intramolecular, tyrosine rotation, experiments 124
Moving pictures 108 113
Multiple minima, effects on dynamics 83
Multiple minimum problem 164
Muscle contraction 137
Myoglobin, collective motions 89
Myoglobin, ligand binding 57 68 118 123 135 154 165—166
Myoglobin, local motion 98—99
Myoglobin, methyl group motions 101
Myoglobin, Mossbauer spectroscopy 102
Myoglobin, structure refinement 162
Myosin, hinge bending 145
Neutron scattering 104
Newton — Raphson method 48—49
Nonbonded exclusions 184
Nonbonded interactions, cutoff distance 40 184
Nonbonded interactions, hydration effects 42—43
Nonbonded interactions, potential function 40
Nonbonded pair list 184
Normal mode analysis 36 57—60 99 138
Normal mode analysis, anharmonic effects 36 59 67 83—84 91 105
Normal mode analysis, damping effects 105
Normal mode analysis, DNA 107 113—115 146
Normal mode analysis, hinge bending 140
Normal mode analysis, low frequency motions 89—90
Normal mode analysis, Monte Carlo methods 161
Normal mode analysis, moving pictures 60
Normal mode analysis, solvent effects 37
Normal mode analysis, thermodynamic parameters 67
Normal mode analysis, torsion space 89—90
Nuclear magnetic resonance, dynamic information 100—105 123—124
Nuclear magnetic resonance, structure refinement 163—164
Nuclear Overhauser effect 100 163—164
Nucleic acids, dynamics 4 31—33
Nucleic acids, function 1—2
Nucleic acids, structure 3 16—22
Nucleic acids, structure, primary 16—17
Nucleic acids, structure, reviews 22
Nucleic acids, structure, secondary 18—21
Nucleic acids, structure, tertiary 19—21
Nucleosome 137 146
Order parameter 100—102
Parameter file 45 184
Partial charges 185
Partial charges, scaling 42 105
Path integrals 39 43
Penicillopepsin 155
Periodic boundary conditions 45 63
Periodic boundary conditions, fluctuating 160 191—193
Periodic boundary conditions, longitudinal 105
Perturbation theory 69—72
Perturbation theory, hydration 71
Perturbation theory, polar hydrogen 182
Polyelectrolyte 34 105
potential energy 187
Potential energy function 39—45 58
Potential energy function, approximations 170—171
Potential energy function, hydration effects 42
Potential energy function, polarization effects 170
Potential of mean force 39—40 42 55 59 67 83 92—93 120 131 138—139 142 150 160 165 171
Potential of mean force, umbrella sampling 69
Potential of mean torque 92
Proteins, dynamics 4 28—31
Proteins, function 1—2
Proteins, structure 3 11—16
Proteins, structure, prediction 164
Proteins, structure, reviews 16
Proteins, structure, rrimary 11—12
Proteins, structure, secondary 15
Proteins, structure, tertiary 16
Pseudodihedral 53
Pseudorotation pathway 126 129
Quantum effects 38—39 60 66 96
Quantum effects, simulation 167
Quasiharmonic approximation 36 67—68 138 160
Quasiharmonic approximation, effects of multiple minima 36
Raman spectroscopy 57
Rate constant 135
Reaction coordinate 46 54—55 66—67 73
Reaction coordinate, choice of 74 172
Reaction coordinate, transition state 131
Reaction coordinate, tyrosine ring flip 119
Ribonuclease, hinge bending 90
Ribonuclease, hydrogen exchange 103
SHAKE 174—180
Site-directed mutagenesis 167
Smoluchowski theory 151—152
Solutions, aqueous, nonpolar solutes 8—9
Solutions, aqueous, polar solutes 10
Steepest descent 47—53
Steepest descent, efficiency 51
Steepest descent, step size 50
Stokes law 26
Stokes law, internal molecular motion 141
Structure, dependence on time scale 6
Structure, refinement by computer simulation 65 161—164
Sugar pucker 21 129
Sugar pucker, DNA helix twist 125
Sugar pucker, fluctuations 111 127—130
Sugar pucker, purines vs pyrimidines 125—127
Sugar pucker, repuckering 126—130
Supercomputers 158—160
Superoxide dismutase 152—154 165
Surface area, solvent-accessible 43
Surface area, solvent-accessible, correlated to motions 108
Temperature factor 91 97 162
Temperature factor, antigenicity, relationship 169
Temperature factor, contributions to 97
Temperature factor, correlations 162
Temperature factor, hydrogen exchange, relationship 104
Temperature factor, simulation 162
Temperature factor, tRNA 107
Theoretical methods 35—78
Theoretical methods, reviews 4
Thermodynamic cycle perturbation method 71—73
Thermodynamic cycle perturbation method, enzyme activity 167—168
Thermodynamic cycle perturbation method, ligand binding 72 166
Thermodynamic cycle perturbation method, umbrella sampling, comparison 71
Topology file 45 183 186
Torsions, backbone: nucleic acids 17
Torsions, backbone: proteins 11
Torsions, improper 183
Torsions, potential function 40
Torsions, sugar 129
Trajectory 46
Transition state theory 131—136
Transition state theory, nonequilibrium effects 135
Transitions, local 117—136
Transitions, local, biological relevance 134
Transitions, local, damping 133
Transitions, local, nucleic acids 124—131
Transitions, local, proteins 118—124
Transitions, local, time scale 117
Transmission coefficient 73 131—132
Transmission coefficient, calculation 75
Transmission coefficient, tyrosine ring flip 121
Triosephosphate isomerase 155
tRNA, anticodon-codon interaction 2
tRNA, crystal structures 20
tRNA, hinge bending 147—149
tRNA, hydrogen bond motions 110—111
tRNA, local motions 106—111
tRNA, molecular dynamics 106 185—187
tRNA, molecular weight 3
tRNA, structure 19—21
Tropomyosin 32
Trypsin 85 145 155
Trypsin inhibitor 80
Trypsin inhibitor, collective motions 89 91
Trypsin inhibitor, global motions 139
Trypsin inhibitor, hydration 84—85 94 100
Trypsin inhibitor, local motions 80—81 83
Trypsin inhibitor, methyl group motions 100—102
Trypsin inhibitor, neutron scattering 104
Trypsin inhibitor, normal mode analysis 60 83 89—90 104
Trypsin inhibitor, structure refinement 162 164
Trypsin, enzyme activity 167
Trypsin, ligand binding 166
Trypsin, molecular dynamics 159
Trypsinogen 145
Tyrosine librations 31 91—95 104
Tyrosine ring flip 54 118—124
Umbrella sampling 68—69 74
Umbrella sampling, large scale deformations 139
Umbrella sampling, thermodynamic cycle perturbation method, comparison 71
Umbrella sampling, tyrosine ring flip 120
Variable metric method 53—54 163
Verlet method 173—174
Verlet method, constrained 176—180
Vibrational motions, normal mode analysis 58
Virtual bonds 53
Virus coat proteins 137
viscosity 26
Viscosity and ligand binding 123 136
Water, dielectric constant 10
Water, diffusion 86
Water, dynamics 25—28
Water, hydrogen bonding 7
Water, molecular dynamics 62
Water, molecule 7
Water, structure 7—8
Water, structure, reviews 11
Water, structure, solute effects 8—11 25—26
X-ray crystallography, dynamic information 96—100
X-ray crystallography, structure refinement by computer simulation 65 161—163
Young's modulus, DNA helix twisting 114
Young's modulus, protein hinge bending 140
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