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Optimization of solid-state fermentation conditions for the production of cellulase and its hydrolytic potentials by Trichoderma virride Sn-9106
Author(s) -
Longwei Guo,
Hong-Man Chen,
Huihui Wang,
Kan Guo-shi,
Daming Ren
Publication year - 2014
Publication title -
african journal of microbiology research
Language(s) - English
Resource type - Journals
ISSN - 1996-0808
DOI - 10.5897/ajmr2013.5764
Subject(s) - cellulase , trichoderma viride , bran , solid state fermentation , fermentation , chemistry , food science , response surface methodology , composition (language) , trichoderma , substrate (aquarium) , factorial experiment , nutrient , hydrolysis , botany , biochemistry , chromatography , biology , raw material , mathematics , organic chemistry , ecology , linguistics , philosophy , statistics
Trichoderma viride Sn-9106 with high cellulase activity was used to produce enzyme on residues of Chinese herbs as substrate in solid state fermentation. Residues of Chinese herbs and peptone were found to be the best combination of carbon and nitrogen source for the production of cellulase. The nutrient composition of medium was optimized using response surface methodology. A fractional factorial design (33) was applied to elucidate the nutrient medium components that significantly affect cellulase production. The concentration of peptone and wheat bran in the medium was a significant factor. The composition of nutrient fermentation medium optimized with response surface methodology was in g/L: wheat bran, 19.8, peptone, 2.06 and KH2PO4, 2.9. Compared to the original medium, the cellulase activity increased from 3.8 to 7.5 IU/mL. Key words: cellulase, Trichoderma viride Sn-9106, response surface methodology (RSM), solid state fermentation (SSF), residues of Chinese herbs (RCH).

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