Molecular insights into substrate specificity of prostate specific antigen through structural modeling

Keyphrases

• Substrate Specificity 100%
• Prostate-specific Antigen 100%
• Structural Modeling 100%
• Molecular Insight 100%
• Prostate Cancer 42%
• Pathobiology 28%
• Aldehydes 28%
• Inhibitory Potency 28%
• Peptide Substrate 28%
• Substrate Recognition 14%
• Novel Peptide 14%
• Enzymatic Activity 14%
• Prostate Carcinogenesis 14%
• Mechanistic Insight 14%
• Physiological Role 14%
• Hydrolysis 14%
• Varying Length 14%
• Molecular Modeling Studies 14%
• Catalytic Site 14%
• Substrate Binding 14%
• Normal Prostate 14%
• Experimental Validity 14%
• Hydrolysis Rate 14%
• Acyl-coenzyme A 14%
• Enzyme Conformation 14%
• Selective Substrate 14%
• Positional Scanning 14%
• Serine Protease Activity 14%
• Substrate Mimetics 14%
• Transition State Inhibitors 14%
• 3D Homology Modeling 14%

Biochemistry, Genetics and Molecular Biology

• Enzyme Specificity 100%
• Prostate-Specific Antigen 100%
• Enzymatic Hydrolysis 28%
• Transition State Analog 14%
• Enzyme Activity 14%
• Molecular Model 14%
• Enzyme Conformation 14%
• Carcinogenesis 14%
• Serine Protease 14%

Pharmacology, Toxicology and Pharmaceutical Science

• Substrate Specificity 100%
• Prostate Specific Antigen 100%
• Prostate Cancer 42%
• Biological Marker 14%
• Proteinase 14%
• Serine Proteinase 14%
• Carcinogenesis 14%