Tailoring polymeric composite gel beads-encapsulated microorganism for efficient degradation of phenolic compounds
Biotechnology and Bioengineering|Updated:2026-01-06
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Tailoring polymeric composite gel beads-encapsulated microorganism for efficient degradation of phenolic compounds
Chinese Journal of Chemical EngineeringVol. 32, Issue 4, Pages: 301-306(2021)
Affiliations:
State Key Laboratory of High-efficiency Coal Utilization and Green Chemical Engineering, College of Chemistry and Chemical Engineering, Ningxia University,Yinchuan,China,750021
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Published:2021
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Xueping Liu, Ping Xue, Feng Jia, Dongya Qiu, Keren Shi, Weiwei Zhang. Tailoring polymeric composite gel beads-encapsulated microorganism for efficient degradation of phenolic compounds[J]. Chinese Journal of Chemical Engineering, 2021, 32(4): 301-306.
DOI:
Xueping Liu, Ping Xue, Feng Jia, Dongya Qiu, Keren Shi, Weiwei Zhang. Tailoring polymeric composite gel beads-encapsulated microorganism for efficient degradation of phenolic compounds[J]. Chinese Journal of Chemical Engineering, 2021, 32(4): 301-306.DOI:
Tailoring polymeric composite gel beads-encapsulated microorganism for efficient degradation of phenolic compounds
Phenol and its derivatives are highly toxic pollutants in industrial wastewater for the ecological environments
so there is essential attention to develop effective means of removing these harmful substances from water. In this work
the microorganism was immobilized into polymeric composite gel beads prepared by the effective recombination of natural abundant chitosan (CS) and industrial polyvinyl alcohol (PVA) for treating phenolic compounds. The degradation rate of 99.5% can be achieved to treat 100 mg·L
-1
of phenol at 30℃ using the fresh resultant immobilized microorganism
where only 21.1% degradation rate was obtained by the free microorganism under the identical conditions. The recycling experiments of repeated 90 times to treat 100 mg·L
-1
of phenol displayed that the degradation rate of phenol was stable to 99% with the appearance of beads unchanged significantly
indicating the immobilized microorganism possessed excellent operating stability. Moreover
while the phenol derivatives of 100 mg·L
-1
were treated catalytically including p-methylphenol
catechol
and o-aminophenol for 24 h by the immobilized microorganism
the degradation rat
es were all above 95%. The immobilized microorganism into PVA-CS polymeric composite with excellent operating stability and degradation activity would provide a feasible solution for treating phenolic compounds in water in industrial applications.
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