Editors | p. vii |
Contributors | p. ix |
Introduction | p. 1 |
Theoretical Background of the Fragment Molecular Orbital (FMO) Method and Its Implementation in Gamess | p. 5 |
Developments of FMO Methodology and Graphical User Interface in Abinit-Mp | p. 37 |
Excited States of Photoactive Proteins by Configuration Interaction Studies | p. 63 |
The Fragment Molecular Orbital-Based Time-Dependent Density Functional Theory for Excited States in Large Systems | p. 91 |
FMO-MD: An Ab Initio-Based Molecular Dynamics of Large Systems | p. 119 |
Application of the FMO Method to Specific Molecular Recognition of Biomacromolecules | p. 133 |
Detailed Electronic Structure Studies Revealing the Nature of Protein-Ligand Binding | p. 171 |
How Does the FMO Method Help in Studying Viruses and Their Binding to Receptors? | p. 193 |
FMO as a Tool for Structure-Based Drug Design | p. 217 |
Modeling a Protein Environment in an Enzymatic Catalysis: A Case Study of the Chorismate Mutase Reaction | p. 245 |
Index | p. 269 |
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