STUDY OF GLUCOSE SYRUP PRODUCTION FROM MALTODEXTRINES USING TWO COMERCIAL ENZYMES

Hydrolyzed starch with a high-dextrose equivalent is extensively used in the food industry and as asource of fermentable sugars. In order to obtain a better yield in this process more efficient enzymeshad been continuously developed. Dextrozyme GA® (DGA) has been released recently in the marketto re...

Descripción completa

Guardado en:
Detalles Bibliográficos
Autores principales: Luz A. BETTÍN S., Juan C. QUINTERO D.
Formato: article
Lenguaje:EN
Publicado: Universidad de Antioquia 2010
Materias:
Acceso en línea:https://doaj.org/article/af40604ba068425485b84862856be56f
Etiquetas: Agregar Etiqueta
Sin Etiquetas, Sea el primero en etiquetar este registro!
id oai:doaj.org-article:af40604ba068425485b84862856be56f
record_format dspace
spelling oai:doaj.org-article:af40604ba068425485b84862856be56f2021-11-19T04:14:24ZSTUDY OF GLUCOSE SYRUP PRODUCTION FROM MALTODEXTRINES USING TWO COMERCIAL ENZYMES0121-40042145-2660https://doaj.org/article/af40604ba068425485b84862856be56f2010-07-01T00:00:00Zhttps://revistas.udea.edu.co/index.php/vitae/article/view/6341https://doaj.org/toc/0121-4004https://doaj.org/toc/2145-2660Hydrolyzed starch with a high-dextrose equivalent is extensively used in the food industry and as asource of fermentable sugars. In order to obtain a better yield in this process more efficient enzymeshad been continuously developed. Dextrozyme GA® (DGA) has been released recently in the marketto replace AMG 300L® (AMG) enzyme. In this paper yields and hydrolysis rates were evaluated as afunction of maltodextrin concentration between 60 and 180 g/L and enzymes concentration between0.188 and 0.75 AGU/mL. DGA allows enhancing hydrolysis rates up to 26 times more than those usingAMG. Also DGA generates conversion of maltodextrin up to 95% in less than 60 minutes, in comparisonwith AMG which produces conversions up to 50% in 8 h. Among the values of substrate and enzymeconcentration studied it was found that a substrate concentration of 130.2 g/L and enzyme concentration of0.55 AGU/mL were optimal values. DGA is inhibited by uncompetitively product and is highly affectedat a low enzyme concentration. We developed a mathematical model that successfully reproduces theexperimental data. These results could be used in reactors design for syrup glucose enzymatic production.Luz A. BETTÍN S.Juan C. QUINTERO D.Universidad de Antioquiaarticleenzymesglucose syrupglucoamylasemaltodextryneshydrolysisFood processing and manufactureTP368-456Pharmaceutical industryHD9665-9675ENVitae, Vol 17, Iss 2 (2010)
institution DOAJ
collection DOAJ
language EN
topic enzymes
glucose syrup
glucoamylase
maltodextrynes
hydrolysis
Food processing and manufacture
TP368-456
Pharmaceutical industry
HD9665-9675
spellingShingle enzymes
glucose syrup
glucoamylase
maltodextrynes
hydrolysis
Food processing and manufacture
TP368-456
Pharmaceutical industry
HD9665-9675
Luz A. BETTÍN S.
Juan C. QUINTERO D.
STUDY OF GLUCOSE SYRUP PRODUCTION FROM MALTODEXTRINES USING TWO COMERCIAL ENZYMES
description Hydrolyzed starch with a high-dextrose equivalent is extensively used in the food industry and as asource of fermentable sugars. In order to obtain a better yield in this process more efficient enzymeshad been continuously developed. Dextrozyme GA® (DGA) has been released recently in the marketto replace AMG 300L® (AMG) enzyme. In this paper yields and hydrolysis rates were evaluated as afunction of maltodextrin concentration between 60 and 180 g/L and enzymes concentration between0.188 and 0.75 AGU/mL. DGA allows enhancing hydrolysis rates up to 26 times more than those usingAMG. Also DGA generates conversion of maltodextrin up to 95% in less than 60 minutes, in comparisonwith AMG which produces conversions up to 50% in 8 h. Among the values of substrate and enzymeconcentration studied it was found that a substrate concentration of 130.2 g/L and enzyme concentration of0.55 AGU/mL were optimal values. DGA is inhibited by uncompetitively product and is highly affectedat a low enzyme concentration. We developed a mathematical model that successfully reproduces theexperimental data. These results could be used in reactors design for syrup glucose enzymatic production.
format article
author Luz A. BETTÍN S.
Juan C. QUINTERO D.
author_facet Luz A. BETTÍN S.
Juan C. QUINTERO D.
author_sort Luz A. BETTÍN S.
title STUDY OF GLUCOSE SYRUP PRODUCTION FROM MALTODEXTRINES USING TWO COMERCIAL ENZYMES
title_short STUDY OF GLUCOSE SYRUP PRODUCTION FROM MALTODEXTRINES USING TWO COMERCIAL ENZYMES
title_full STUDY OF GLUCOSE SYRUP PRODUCTION FROM MALTODEXTRINES USING TWO COMERCIAL ENZYMES
title_fullStr STUDY OF GLUCOSE SYRUP PRODUCTION FROM MALTODEXTRINES USING TWO COMERCIAL ENZYMES
title_full_unstemmed STUDY OF GLUCOSE SYRUP PRODUCTION FROM MALTODEXTRINES USING TWO COMERCIAL ENZYMES
title_sort study of glucose syrup production from maltodextrines using two comercial enzymes
publisher Universidad de Antioquia
publishDate 2010
url https://doaj.org/article/af40604ba068425485b84862856be56f
work_keys_str_mv AT luzabettins studyofglucosesyrupproductionfrommaltodextrinesusingtwocomercialenzymes
AT juancquinterod studyofglucosesyrupproductionfrommaltodextrinesusingtwocomercialenzymes
_version_ 1718420465363451904