Isolation of Fungi and Optimization of pH and Temperature for Cellulase Production

The crystalline structure of cellulose makes it difficult to degrade and so most of the cellulosic waste in nature is disposed of by biomass burning. Cellulase enzyme system is potent enough to convert cellulose into glucose. Fungi are known to produce an array of hydrolytic enzymes. This study invo...

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Main Author: Sheetal Barapatre, Mansi Rastogi, Savita and Meenakshi Nandal
Format: Article
Language:English
Published: Technoscience Publications 2020-12-01
Series:Nature Environment and Pollution Technology
Subjects:
Online Access:http://neptjournal.com/upload-images/(44)B-3685.pdf
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spelling doaj-403d6ed1ccc542819352e9bd721d8e1f2020-12-09T06:45:11ZengTechnoscience PublicationsNature Environment and Pollution Technology0972-62682395-34542020-12-011941729173510.46488/NEPT.2020.v19i04.044Isolation of Fungi and Optimization of pH and Temperature for Cellulase ProductionSheetal Barapatre, Mansi Rastogi, Savita and Meenakshi NandalThe crystalline structure of cellulose makes it difficult to degrade and so most of the cellulosic waste in nature is disposed of by biomass burning. Cellulase enzyme system is potent enough to convert cellulose into glucose. Fungi are known to produce an array of hydrolytic enzymes. This study involves isolation of high potential cellulolytic fungal strains from the soil and optimizing pH and temperature conditions for enhanced cellulase production. The fungal strains were isolated from soil using serial dilution and pour plate techniques and screened using Congo red test and FPase method. Based on hydrolytic zones formation and cellulase enzyme production, Aspergillus fumigatus, Aspergillus terreus and Aspergillus flavus were found to show the highest potency for hydrolytic enzyme production at pH 5.8-6.0 and temperature range of 40°C-50°C.http://neptjournal.com/upload-images/(44)B-3685.pdfenvironment
collection DOAJ
language English
format Article
sources DOAJ
author Sheetal Barapatre, Mansi Rastogi, Savita and Meenakshi Nandal
spellingShingle Sheetal Barapatre, Mansi Rastogi, Savita and Meenakshi Nandal
Isolation of Fungi and Optimization of pH and Temperature for Cellulase Production
Nature Environment and Pollution Technology
environment
author_facet Sheetal Barapatre, Mansi Rastogi, Savita and Meenakshi Nandal
author_sort Sheetal Barapatre, Mansi Rastogi, Savita and Meenakshi Nandal
title Isolation of Fungi and Optimization of pH and Temperature for Cellulase Production
title_short Isolation of Fungi and Optimization of pH and Temperature for Cellulase Production
title_full Isolation of Fungi and Optimization of pH and Temperature for Cellulase Production
title_fullStr Isolation of Fungi and Optimization of pH and Temperature for Cellulase Production
title_full_unstemmed Isolation of Fungi and Optimization of pH and Temperature for Cellulase Production
title_sort isolation of fungi and optimization of ph and temperature for cellulase production
publisher Technoscience Publications
series Nature Environment and Pollution Technology
issn 0972-6268
2395-3454
publishDate 2020-12-01
description The crystalline structure of cellulose makes it difficult to degrade and so most of the cellulosic waste in nature is disposed of by biomass burning. Cellulase enzyme system is potent enough to convert cellulose into glucose. Fungi are known to produce an array of hydrolytic enzymes. This study involves isolation of high potential cellulolytic fungal strains from the soil and optimizing pH and temperature conditions for enhanced cellulase production. The fungal strains were isolated from soil using serial dilution and pour plate techniques and screened using Congo red test and FPase method. Based on hydrolytic zones formation and cellulase enzyme production, Aspergillus fumigatus, Aspergillus terreus and Aspergillus flavus were found to show the highest potency for hydrolytic enzyme production at pH 5.8-6.0 and temperature range of 40°C-50°C.
topic environment
url http://neptjournal.com/upload-images/(44)B-3685.pdf
work_keys_str_mv AT sheetalbarapatremansirastogisavitaandmeenakshinandal isolationoffungiandoptimizationofphandtemperatureforcellulaseproduction
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