Proceedings of the National Academy of Sciences · 2019 · 368 citations · 37 references
PharmacyImmunologyMolecular BiologyDrug DesignDrug DiscoveryStructural BiologyAntibody CharacterizationAntibody DiscoveryAntibody StabilityAntibody StructureDevelopability AssessmentTherapeutic Antibody DevelopmentAntibody Developability AssessmentAntibody Repertoire DevelopmentComplementarity-determining Region (Cdr) OptimizationComputational Developability PredictionMonoclonal Antibody DesignMonoclonal Antibody TherapeuticsSmall Molecule Drug DesignSmall Molecule Drug Development
Therapeutic mAbs must not only bind to their target but must also be free from "developability issues" such as poor stability or high levels of aggregation. While small-molecule drug discovery benefits from Lipinski's rule of five to guide the selection of molecules with appropriate biophysical properties, there is currently no in silico analog for antibody design. Here, we model the variable domain structures of a large set of post-phase-I clinical-stage antibody therapeutics (CSTs) and calculate in silico metrics to estimate their typical properties. In each case, we contextualize the CST distribution against a snapshot of the human antibody gene repertoire. We describe guideline values for five metrics thought to be implicated in poor developability: the total length of the complementarity-determining regions (CDRs), the extent and magnitude of surface hydrophobicity, positive charge and negative charge in the CDRs, and asymmetry in the net heavy- and light-chain surface charges. The guideline cutoffs for each property were derived from the values seen in CSTs, and a flagging system is proposed to identify nonconforming candidates. On two mAb drug discovery sets, we were able to selectively highlight sequences with developability issues. We make available the Therapeutic Antibody Profiler (TAP), a computational tool that builds downloadable homology models of variable domain sequences, tests them against our five developability guidelines, and reports potential sequence liabilities and canonical forms. TAP is freely available at opig.stats.ox.ac.uk/webapps/sabdab-sabpred/TAP.php.
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Helen M. Berman · Nucleic Acids Research · 2000 · 39.8K citations
Ultrastructural Characterization of the Lower Motor System in a Mouse Model of Krabbe Disease
Valentina Cappello, Laura Marchetti, Paola Parlanti et al. · Scientific Reports · 2016 · 13.3K citations · Full text
Medicine, Neurobiology, Neuroscience +17
Solvation energy in protein folding and binding
David Eisenberg, Andrew D. McLachlan · Nature · 1986 · 1.9K citations