Constant-pH Simulations with the Polarizable Atomic Multipole AMOEBA Force Field

Keyphrases

• Amino Acids 40%
• Atomic multipoles 100%
• Biochemical Mechanism 20%
• Biomolecular 100%
• Biomolecular Simulation 20%
• Biomolecular Systems 20%
• Catalytic Triad 20%
• Constant pH Molecular Dynamics 80%
• Constant pH Molecular Dynamics Simulations 20%
• Constant pH Simulations 100%
• Crystalline Systems 20%
• Cysteine 20%
• Diffraction Data 20%
• Fixed-charge Force Field 20%
• Flexible Support 20%
• Force Application 100%
• Force Field 100%
• Force Field X 20%
• Histidine tautomers 20%
• Induced Dipoles 20%
• Lead Optimization 20%
• Major Challenges 20%
• Molecular Dynamics Algorithm 40%
• PH Environment 20%
• Pharmaceutical Leads 20%
• PKa Prediction 20%
• Polarizable 100%
• Protease 20%
• Protein Behavior 20%
• Protein-ligand Binding Affinity 20%
• R-refinement 20%
• State Change 20%
• Titration 40%
• Zn2+ 20%

Biochemistry, Genetics and Molecular Biology

• Alpha-Linolenic Acid 33%
• Amino Acids 66%
• Binding Affinity 33%
• Biochemical Mechanism 33%
• Catalytic Triad 33%
• Cysteine 33%
• Diffraction 33%
• Dipole 33%
• Energy Transfer 100%
• Experimental Model 33%
• Histidine 33%
• Ligand Binding 33%
• Peptide 66%
• Protease 33%
• Protein Ligand 33%
• Tautomer 33%

Chemistry

• Alpha-Linolenic Acid 20%
• Amino Acid 40%
• Asp-Glu 20%
• Biochemicals 20%
• Conformational Isomer 20%
• Cysteine 20%
• Energetics 100%
• His-Lys 20%
• Histidine 20%
• Kd 20%
• Ligand Binding 20%
• Molecular Dynamics 80%
• Molecular Dynamics Simulation 20%
• Multipole 100%
• Peptide 40%
• Space Group 20%
• Tautomer 20%
• Titration 40%