Optimization of inulin production process parameters using response surface methodology

Abstract Background Chicory is one of the major source of inulin. In our study, Box–Behnken model/response surface analysis (RSM) was used for the optimization of spray drying process variables to get the maximum inulin yield from chicory (Cichorium intybus L.). For this investigation, the investiga...

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Main Authors: Wasim Akram, Navneet Garud
Format: Article
Language:English
Published: SpringerOpen 2020-10-01
Series:Future Journal of Pharmaceutical Sciences
Subjects:
Online Access:http://link.springer.com/article/10.1186/s43094-020-00087-1
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spelling doaj-ca5c286ba930413596d5843de7b4ad962020-11-25T03:59:17ZengSpringerOpenFuture Journal of Pharmaceutical Sciences2314-72532020-10-01611910.1186/s43094-020-00087-1Optimization of inulin production process parameters using response surface methodologyWasim Akram0Navneet Garud1School of Studies in Pharmaceutical Sciences, Jiwaji UniversitySchool of Studies in Pharmaceutical Sciences, Jiwaji UniversityAbstract Background Chicory is one of the major source of inulin. In our study, Box–Behnken model/response surface analysis (RSM) was used for the optimization of spray drying process variables to get the maximum inulin yield from chicory (Cichorium intybus L.). For this investigation, the investigational plan utilized three process variables drying temperature (115–125 °C), creep speed (20–24 rpm), and pressure (0.02–0.04 MPa). Result The optimal variables established by applying the Box–Behnken model were as follows: drying temperature 119.20 °C, creep speed 21.64 rpm, and pressure 0.03 MPa. The obtained powdered inulin by spray drying was investigated for the yield value, identification, size, and surface morphology of the particle. The inulin obtained from the spray drying process consists of a fine molecule-sized white powder. Instead, the drying methods shows a significant effect on the morphology and internal configuration of the powdered inulin, as the inulin obtained from spray drying was of a widespread and uniform size and shape, with a rough surface on increase in temperature and smoother surface while increasing the creep speed. The findings indicate that the spray drying with optimum parameters resulted in maximum product yield. Conclusion The outcomes of the study concluded that the product yield through spray drying technique under optimized condition is optimal as compared to other drying technique. Hence, this technique may be applied at commercial scale for the production of inulin.http://link.springer.com/article/10.1186/s43094-020-00087-1InulinSpray drying processOptimizationBox–Behnken design/response surface methodology
collection DOAJ
language English
format Article
sources DOAJ
author Wasim Akram
Navneet Garud
spellingShingle Wasim Akram
Navneet Garud
Optimization of inulin production process parameters using response surface methodology
Future Journal of Pharmaceutical Sciences
Inulin
Spray drying process
Optimization
Box–Behnken design/response surface methodology
author_facet Wasim Akram
Navneet Garud
author_sort Wasim Akram
title Optimization of inulin production process parameters using response surface methodology
title_short Optimization of inulin production process parameters using response surface methodology
title_full Optimization of inulin production process parameters using response surface methodology
title_fullStr Optimization of inulin production process parameters using response surface methodology
title_full_unstemmed Optimization of inulin production process parameters using response surface methodology
title_sort optimization of inulin production process parameters using response surface methodology
publisher SpringerOpen
series Future Journal of Pharmaceutical Sciences
issn 2314-7253
publishDate 2020-10-01
description Abstract Background Chicory is one of the major source of inulin. In our study, Box–Behnken model/response surface analysis (RSM) was used for the optimization of spray drying process variables to get the maximum inulin yield from chicory (Cichorium intybus L.). For this investigation, the investigational plan utilized three process variables drying temperature (115–125 °C), creep speed (20–24 rpm), and pressure (0.02–0.04 MPa). Result The optimal variables established by applying the Box–Behnken model were as follows: drying temperature 119.20 °C, creep speed 21.64 rpm, and pressure 0.03 MPa. The obtained powdered inulin by spray drying was investigated for the yield value, identification, size, and surface morphology of the particle. The inulin obtained from the spray drying process consists of a fine molecule-sized white powder. Instead, the drying methods shows a significant effect on the morphology and internal configuration of the powdered inulin, as the inulin obtained from spray drying was of a widespread and uniform size and shape, with a rough surface on increase in temperature and smoother surface while increasing the creep speed. The findings indicate that the spray drying with optimum parameters resulted in maximum product yield. Conclusion The outcomes of the study concluded that the product yield through spray drying technique under optimized condition is optimal as compared to other drying technique. Hence, this technique may be applied at commercial scale for the production of inulin.
topic Inulin
Spray drying process
Optimization
Box–Behnken design/response surface methodology
url http://link.springer.com/article/10.1186/s43094-020-00087-1
work_keys_str_mv AT wasimakram optimizationofinulinproductionprocessparametersusingresponsesurfacemethodology
AT navneetgarud optimizationofinulinproductionprocessparametersusingresponsesurfacemethodology
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