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Pd Asymmetric Allylic Alkylation (AAA). A Powerful Synthetic Tool.

Chemical and Pharmaceutical Bulletin · 2002 · Vol. 50(1) · pp. 1–14
Barry M. Trost

Abstract

Palladium catalyzed asymmetric allylic alkylations represent a challenging problem because the mechanism of the reaction places the chiral environment distal to the bond breaking or making events responsible for the asymmetric induction. Furthermore, unlike virtually every other asymmetric process, many strategies can be employed for introduction of asymmetry and many different types of bonds can be formed. While over 100 different ligands have been designed, a family of ligands derived from 2-diphenylphosphinobenzoic or 1-naphthoic acid and chiral scalemic diamines have been successful in inducing excellent enantioselectivity by five different enantiodiscriminating events. These methods have already provided practical strategies towards numerous biological targets--some of which are adenosine and its enantiomer, aflatoxin B, aristeromycin, calanolide A and B, carbovir, cyclophellitol, ethambutol, galanthamine, mannostatin, neplanocin, phyllanthocin, sphingofungins E and F, tetraponaines, vigabatrin, and valienamine.

Asymmetric Synthesis and CatalysisChemical Synthesis and AnalysisAsymmetric Hydrogenation and CatalysisChemistryTsuji–Trost reactionStereochemistryAllylic rearrangementEnantiomerEnantioselective synthesisAsymmetric inductionIntramolecular forceChirality (physics)Combinatorial chemistry

MeSH terms

AlkylationAllyl CompoundsCatalysisLigandsModels, ChemicalPalladiumStereoisomerismStructure-Activity Relationship

Funding

  • National Science Foundation
  • American Cancer Society
  • Alexander von Humboldt-Stiftung
  • National Institutes of Health
Citations
316
FWCI
17.60
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References
79
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100%
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