Human Missense Variation is Constrained by Domain Structure and Highlights Functional and Pathogenic Residues

Keyphrases

• Evolutionary 100%
• Missense 100%
• Domain Structure 100%
• Missense Variation 100%
• Genetic Variation 66%
• Disease Variants 66%
• Genic 66%
• Missense Variants 66%
• Prediction Model 33%
• Sparsity 33%
• Between-person 33%
• Risk Factors 33%
• Protein-protein Interaction 33%
• Mutagenesis 33%
• Specificity Protein 1 33%
• Human Proteins 33%
• Ligand-binding Domain 33%
• G Protein-coupled Receptor 33%
• Protein Domain 33%
• Proteome 33%
• Ligand Binding 33%
• Human Genome Sequencing 33%
• Functional Studies 33%
• Multiple Sequence Alignment 33%
• RING Finger 33%
• Human Population 33%
• Small Molecule Drugs 33%
• Protein Residue 33%
• Acceptor Site 33%
• Receptor-ligand Binding 33%
• Donor-acceptor 33%
• Pathogenic Variants 33%
• Amino Acid Conservation 33%
• Residue Conservation 33%
• Residue Interaction 33%
• Genomic Distribution 33%
• Genomic Features 33%
• Population Variants 33%
• Gene Essentiality 33%
• Domain Evolution 33%
• Functional Pressure 33%
• DNA Binding Interaction 33%
• ClinVar 33%
• Protein Domain Architecture 33%
• Nuclear Receptor Ligands 33%
• Pathogenicity Prediction 33%

Biochemistry, Genetics and Molecular Biology

• Missense 100%
• Genetic Variation 33%
• Genetic Divergence 33%
• Genomics 33%
• Protein Tertiary Structure 33%
• Small Molecule 16%
• Amino Acids 16%
• Human Genome 16%
• Binding Site 16%
• Mutagenesis 16%
• Binding Protein 16%
• Proteome 16%
• DNA Binding 16%
• Sequence Alignment 16%
• Nuclear Receptor 16%
• G Protein Coupled Receptor 16%
• Ligand Binding Domain 16%
• Genome Sequencing 16%