| Literature DB >> 30811993 |
Hyun Gi Kong1, Hyun Ho Kim2, Joon-Hui Chung1, JeHoon Jun2, Soohyun Lee1, Hak-Min Kim3, Sungwon Jeon3, Seung Gu Park3, Jong Bhak4, Choong-Min Ryu5.
Abstract
The greater wax moth, Galleria mellonella, degrades wax and plastic molecules. Despite much interest, the genetic basis of these hallmark traits remains poorly understood. Herein, we assembled high-quality genome and transcriptome data from G. mellonella to investigate long-chain hydrocarbon wax metabolism strategies. Specific carboxylesterase and lipase and fatty-acid-metabolism-related enzymes in the G. mellonella genome are transcriptionally regulated during feeding on beeswax. Strikingly, G. mellonella lacking intestinal microbiota successfully decomposes long-chain fatty acids following wax metabolism, although the intestinal microbiome performs a supplementary role in short-chain fatty acid degradation. Notably, final wax derivatives were detected by gas chromatography even in the absence of gut microbiota. Our findings provide insight into wax moth adaptation and may assist in the development of unique wax-degradation strategies with a similar metabolic approach for a plastic molecule polyethylene biodegradation using organisms without intestinal microbiota.Entities:
Keywords: Galleria mellonella; genome assembly; intestinal microbiota; polyethylene; transcriptome; wax degradation
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Year: 2019 PMID: 30811993 DOI: 10.1016/j.celrep.2019.02.018
Source DB: PubMed Journal: Cell Rep Impact factor: 9.423