Journal of Physics Conference Series · 2018 · 21 citations · 13 references
Life SciencesEntomologyMicrobiologyMicrobial EcologyMicrobial TaxonomySoil MicrobiologyBiodegradationMicrobial DecompositionTermite BiologyCellulose BreakdownCellulose DecompositionCellulose DegradationGut SymbiosisLignocellulose BreakdownLignocellulose DecompositionLignocellulose DegradationSoil Insects
The energy and environmental crises developed due to a huge amount of cellulosic materials are disposed of as "waste." Cellulose is the most abundant biopolymer on Earth. The hydrolysis of cellulose to glucose and soluble sugars has thus become a subject of intense research. Termites are one of the most important soil insects that efficiently decompose lignocelluloses with the aid of their associated microbial symbionts to a simpler form of sugars. The steps of this study consisted of cellulose isolation, cellulolytic bacteria isolation and identification. Cellulose degrading bacteria from termite (Cryptotermes sp.) gut flora were isolated, screened and their identification was studied which showed halo zones due to CMC agar. Among 12 isolates of bacteria, six isolates were cellulolytic. MLC-A isolate had shown a maximum in a cellulolytic index (1.32). Each isolate was identified based on standard physical and biochemical tests. Three isolates were identified in the genus of Clostridium, one isolate be placed in the group of Mycobacteriaceae, Lactobacillaceae or Coryneform and the last one in the genus Proteus.
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Bergey's Manual of Determinative Bacteriology
F. A. S., R. E. Buchanan, N. E. Gibbons et al. · Taxon · 1975 · 11.4K citations
Cellulases and related enzymes in biotechnology
M. K. Bhat · Biotechnology Advances · 2000 · 1.4K citations