Stereoselective Synthesis of γ‐(Acyloxy)carboxylic Acids and γ‐Lactones Featuring the Switch of Stereopreference of Candida antarctica Lipase B in Sodium γ‐Hydroxycarboxylate Homologues

Scalable protocols of straightforward synthesis of enantiomeric γ‐(acyloxy)carboxylic acids and γ‐lactones are presented. The key step is lipase‐catalyzed stereoselective acylation of γ‐hydroxycarboxylic acid sodium salt in organic solvent followed by acidification of the product, extraction and aci...

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Veröffentlicht in:European journal of organic chemistry 2023-01, Vol.26 (3), p.n/a
Hauptverfasser: Parve, Jaan, Kudryashova, Marina, Shalima, Tatsiana, Villo, Ly, Ferschel, Moonika, Niidu, Allan, Liblikas, Ilme, Reile, Indrek, Aav, Riina, Gathergood, Nicholas, Vares, Lauri, Pehk, Tõnis, Parve, Omar
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container_title European journal of organic chemistry
container_volume 26
creator Parve, Jaan
Kudryashova, Marina
Shalima, Tatsiana
Villo, Ly
Ferschel, Moonika
Niidu, Allan
Liblikas, Ilme
Reile, Indrek
Aav, Riina
Gathergood, Nicholas
Vares, Lauri
Pehk, Tõnis
Parve, Omar
description Scalable protocols of straightforward synthesis of enantiomeric γ‐(acyloxy)carboxylic acids and γ‐lactones are presented. The key step is lipase‐catalyzed stereoselective acylation of γ‐hydroxycarboxylic acid sodium salt in organic solvent followed by acidification of the product, extraction and acidic relactonization of the unreacted enantiomer. The mixture of γ‐(acyloxy)carboxylic acid and γ‐lactone is separated either by extraction with solution of sodium bicarbonate or by distillation. A switch of enantioinduction of Candida antarctica lipase B along homologous nucleophiles from R configuration of γ‐hydroxyhexanoic acid salt to S configuration of the C7 and longer‐chain homologues has been disclosed. Both enantiomers of γ‐(acyloxy)pentanoic acids; γ‐(acetyloxy)octanoic and ‐nonanoic acids with S configuration; [(1S,5R)‐5‐(chloroacetyloxy)cyclopent‐2‐en‐1‐yl]acetic acid and enantiomeric γ‐lactones derived from them were prepared with e. r. >98.5/1.5. The rates of acylation of C5 to C9 homologous salts differ by three orders of magnitude but remain applicable for preparative synthesis by variation of the enzyme loading and reaction time. The synthesis of enantiomeric γ‐(acyloxy)carboxylic acids and γ‐lactones from racemic γ‐lactones is reported, which involves lipase‐catalyzed acylation of γ‐hydroxycarboxylic acid sodium salts in organic solvent followed by relactonization of the unreacted enantiomer. The products were separated by extraction, no column chromatography is needed.
doi_str_mv 10.1002/ejoc.202201329
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The rates of acylation of C5 to C9 homologous salts differ by three orders of magnitude but remain applicable for preparative synthesis by variation of the enzyme loading and reaction time. The synthesis of enantiomeric γ‐(acyloxy)carboxylic acids and γ‐lactones from racemic γ‐lactones is reported, which involves lipase‐catalyzed acylation of γ‐hydroxycarboxylic acid sodium salts in organic solvent followed by relactonization of the unreacted enantiomer. 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identifier ISSN: 1434-193X
ispartof European journal of organic chemistry, 2023-01, Vol.26 (3), p.n/a
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source Wiley Online Library Journals Frontfile Complete
subjects Acetic acid
Acidification
Acylation
biocatalysis
Carboxylic acids
Configurations
Distillation
enantiomeric γ-lactones
Enantiomers
Homology
Lactones
Lipase
Nucleophiles
Reaction time
Sodium bicarbonate
Sodium salts
Stereoselectivity
γ-(acyloxy)carboxylic acid
γ-hydroxycarboxylic acid sodium salt
title Stereoselective Synthesis of γ‐(Acyloxy)carboxylic Acids and γ‐Lactones Featuring the Switch of Stereopreference of Candida antarctica Lipase B in Sodium γ‐Hydroxycarboxylate Homologues
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