Proceedings of the National Academy of Sciences · 2018 · 131 citations · 47 references
PharmacyChemistryMedicinal ChemistryCombinatorial ChemistryDrug DiscoveryNucleic Acid ChemistryCombinatorial SynthesisDna ChemistryNucleic Acid SynthesisOrganic SynthesisRadical ReactionsReaction MechanismsChemical Library SynthesisDna-encoded LibrariesDna-encoded Library DesignDna-encoded Library TechnologyHigh-throughput Reaction ScreeningOrganic Compound ReactionsRadical Mediated C - C Bond FormationRadical-radical Reactions
Significance Combinatorial synthesis via DNA encoded library (DEL) has evolved as a technology of great importance in drug discovery. However, the idiosyncratic aqueous, dilute, DNA-sensitive parameters and infinitesimal scale of this system present new challenges for traditional organic reactions. A detailed protocol aiding the transition from organic reactions to reactions with DNA-bound molecules was developed using a tactical combination of kinetic analysis and reaction screening. As an example, the venerable Giese addition was applied to forge high-value C−C bonds, including all-carbon quaternary centers, on DNA, representing the first radical-based synthesis in DEL that expands the traditional toolbox beyond pericyclic, carbonyl-based, and two-electron cross-couplings.
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A general alkyl-alkyl cross-coupling enabled by redox-active esters and alkylzinc reagents
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DNA-Templated Organic Synthesis and Selection of a Library of Macrocycles
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