Lipase-catalyzed preparation of biologically active esters of dehydroepiandrosterone

A series of acyl esters derivatives of dehydroepiandrosterone have been prepared by an enzymatic methodology. The acyl chain had a length that varied from two to eighteen carbon atoms. The C18 derivative could be saturated or unsaturated. Following this biocatalytic approach we have also obtained a...

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Autores principales: Bruttomesso, A.C., Tiscornia, A., Baldessari, A.
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Acceso en línea:http://hdl.handle.net/20.500.12110/paper_10242422_v22_n3_p215_Bruttomesso
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spelling todo:paper_10242422_v22_n3_p215_Bruttomesso2023-10-03T15:56:52Z Lipase-catalyzed preparation of biologically active esters of dehydroepiandrosterone Bruttomesso, A.C. Tiscornia, A. Baldessari, A. Dehydroepiandrosterone Enzymatic acylation Lipase-catalyzed Biocatalysts Carbon Catalysis Environmental impact Esterification Acyl derivatives Transesterification reactions Esters 3beta (3 chloropropoxy) 5 androsten 17 one 3beta 9 octadecanoyloxy 5 androsten 17 one 3beta 9,12 octadecadienoyloxy 5 androsten 17 one 3beta 9,12,15 octadecatrienoyloxy 5 androsten 17 one 3beta acetoxy 5 androsten 17 one 3beta butyroxy 5 androsten 17 one 3beta dodecanoyloxy 5 androsten 17 one 3beta hexadecanoyloxy 5 androsten 17 one 3beta hexanoyloxy 5 androsten 17 one 3beta octadecanoyloxy 5 androsten 17 one 3beta propoxy 5 androsten 17 one carboxylic acid derivative ester derivative prasterone steroid triacylglycerol lipase unclassified drug acylation analytic method article biocatalyst chemical reaction kinetics controlled study drug activity drug structure drug synthesis economic aspect environmental impact esterification quantum yield structure analysis transesterification A series of acyl esters derivatives of dehydroepiandrosterone have been prepared by an enzymatic methodology. The acyl chain had a length that varied from two to eighteen carbon atoms. The C18 derivative could be saturated or unsaturated. Following this biocatalytic approach we have also obtained a chloropropionyl derivative. We have observed that several lipases catalyzed esterification and transesterification reactions of dehydroepiandrosterone with carboxylic acids or alkyl carboxylates. The advantages presented by this methodology such as mild reaction conditions, economy and low environmental impact, make biocatalysis a convenient way to prepare acyl derivatives of DHEA with biological activity. © 2004 Taylor & Francis Ltd. Fil:Bruttomesso, A.C. Universidad de Buenos Aires. Facultad de Ciencias Exactas y Naturales; Argentina. Fil:Baldessari, A. Universidad de Buenos Aires. Facultad de Ciencias Exactas y Naturales; Argentina. JOUR info:eu-repo/semantics/openAccess http://creativecommons.org/licenses/by/2.5/ar http://hdl.handle.net/20.500.12110/paper_10242422_v22_n3_p215_Bruttomesso
institution Universidad de Buenos Aires
institution_str I-28
repository_str R-134
collection Biblioteca Digital - Facultad de Ciencias Exactas y Naturales (UBA)
topic Dehydroepiandrosterone
Enzymatic acylation
Lipase-catalyzed
Biocatalysts
Carbon
Catalysis
Environmental impact
Esterification
Acyl derivatives
Transesterification reactions
Esters
3beta (3 chloropropoxy) 5 androsten 17 one
3beta 9 octadecanoyloxy 5 androsten 17 one
3beta 9,12 octadecadienoyloxy 5 androsten 17 one
3beta 9,12,15 octadecatrienoyloxy 5 androsten 17 one
3beta acetoxy 5 androsten 17 one
3beta butyroxy 5 androsten 17 one
3beta dodecanoyloxy 5 androsten 17 one
3beta hexadecanoyloxy 5 androsten 17 one
3beta hexanoyloxy 5 androsten 17 one
3beta octadecanoyloxy 5 androsten 17 one
3beta propoxy 5 androsten 17 one
carboxylic acid derivative
ester derivative
prasterone
steroid
triacylglycerol lipase
unclassified drug
acylation
analytic method
article
biocatalyst
chemical reaction kinetics
controlled study
drug activity
drug structure
drug synthesis
economic aspect
environmental impact
esterification
quantum yield
structure analysis
transesterification
spellingShingle Dehydroepiandrosterone
Enzymatic acylation
Lipase-catalyzed
Biocatalysts
Carbon
Catalysis
Environmental impact
Esterification
Acyl derivatives
Transesterification reactions
Esters
3beta (3 chloropropoxy) 5 androsten 17 one
3beta 9 octadecanoyloxy 5 androsten 17 one
3beta 9,12 octadecadienoyloxy 5 androsten 17 one
3beta 9,12,15 octadecatrienoyloxy 5 androsten 17 one
3beta acetoxy 5 androsten 17 one
3beta butyroxy 5 androsten 17 one
3beta dodecanoyloxy 5 androsten 17 one
3beta hexadecanoyloxy 5 androsten 17 one
3beta hexanoyloxy 5 androsten 17 one
3beta octadecanoyloxy 5 androsten 17 one
3beta propoxy 5 androsten 17 one
carboxylic acid derivative
ester derivative
prasterone
steroid
triacylglycerol lipase
unclassified drug
acylation
analytic method
article
biocatalyst
chemical reaction kinetics
controlled study
drug activity
drug structure
drug synthesis
economic aspect
environmental impact
esterification
quantum yield
structure analysis
transesterification
Bruttomesso, A.C.
Tiscornia, A.
Baldessari, A.
Lipase-catalyzed preparation of biologically active esters of dehydroepiandrosterone
topic_facet Dehydroepiandrosterone
Enzymatic acylation
Lipase-catalyzed
Biocatalysts
Carbon
Catalysis
Environmental impact
Esterification
Acyl derivatives
Transesterification reactions
Esters
3beta (3 chloropropoxy) 5 androsten 17 one
3beta 9 octadecanoyloxy 5 androsten 17 one
3beta 9,12 octadecadienoyloxy 5 androsten 17 one
3beta 9,12,15 octadecatrienoyloxy 5 androsten 17 one
3beta acetoxy 5 androsten 17 one
3beta butyroxy 5 androsten 17 one
3beta dodecanoyloxy 5 androsten 17 one
3beta hexadecanoyloxy 5 androsten 17 one
3beta hexanoyloxy 5 androsten 17 one
3beta octadecanoyloxy 5 androsten 17 one
3beta propoxy 5 androsten 17 one
carboxylic acid derivative
ester derivative
prasterone
steroid
triacylglycerol lipase
unclassified drug
acylation
analytic method
article
biocatalyst
chemical reaction kinetics
controlled study
drug activity
drug structure
drug synthesis
economic aspect
environmental impact
esterification
quantum yield
structure analysis
transesterification
description A series of acyl esters derivatives of dehydroepiandrosterone have been prepared by an enzymatic methodology. The acyl chain had a length that varied from two to eighteen carbon atoms. The C18 derivative could be saturated or unsaturated. Following this biocatalytic approach we have also obtained a chloropropionyl derivative. We have observed that several lipases catalyzed esterification and transesterification reactions of dehydroepiandrosterone with carboxylic acids or alkyl carboxylates. The advantages presented by this methodology such as mild reaction conditions, economy and low environmental impact, make biocatalysis a convenient way to prepare acyl derivatives of DHEA with biological activity. © 2004 Taylor & Francis Ltd.
format JOUR
author Bruttomesso, A.C.
Tiscornia, A.
Baldessari, A.
author_facet Bruttomesso, A.C.
Tiscornia, A.
Baldessari, A.
author_sort Bruttomesso, A.C.
title Lipase-catalyzed preparation of biologically active esters of dehydroepiandrosterone
title_short Lipase-catalyzed preparation of biologically active esters of dehydroepiandrosterone
title_full Lipase-catalyzed preparation of biologically active esters of dehydroepiandrosterone
title_fullStr Lipase-catalyzed preparation of biologically active esters of dehydroepiandrosterone
title_full_unstemmed Lipase-catalyzed preparation of biologically active esters of dehydroepiandrosterone
title_sort lipase-catalyzed preparation of biologically active esters of dehydroepiandrosterone
url http://hdl.handle.net/20.500.12110/paper_10242422_v22_n3_p215_Bruttomesso
work_keys_str_mv AT bruttomessoac lipasecatalyzedpreparationofbiologicallyactiveestersofdehydroepiandrosterone
AT tiscorniaa lipasecatalyzedpreparationofbiologicallyactiveestersofdehydroepiandrosterone
AT baldessaria lipasecatalyzedpreparationofbiologicallyactiveestersofdehydroepiandrosterone
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