ABSTRACT: Comparative multi-omics analyses reveal differential expression of key genes relevant for parasitism between non-encapsulated and encapsulated Trichinella
Project description:Comparative multi-omics analyses reveal differential expression of key genes relevant for parasitism between non-encapsulated and encapsulated Trichinella
| PRJNA449263 | ENA
Project description:Comparative multi-omics analyses reveal differential expression of key genes relevant for parasitism between non-encapsulated and encapsulated Trichinella
Project description:To reveal the correlation between epigenomic diversity and genomic SNVs, we first identified SNPs between T4 with other eleven Trichinella species. In total, we obtained 5,395,250 common SNVs across the twelve Trichinella species.
Project description:We describe the first comprehensive study confirming the existence of DNA methylation, characterising the methylomes of three life stages of the food-borne agent of human trichinellosis, Trichinella spiralis. We further identify sets of genes where the DNA methylation status varied between thedevelopmental stages that are closely related to the parasitism of the organism. Examination of DNA methylation status in three life stages (Adult, muscle larve, new born larve) of Trchinella Spiralis using MethylC-seq.
Project description:Genome assemblies can form the basis of comparative analyses fostering insight into the evolutionary genetics. Genome evolution influences a parasite’s pathogenicity, host–pathogen interactions, environmental constraints and invasion biology. Comparative genomics and epigenomics analyses will provide deep understanding of parasitism biology for future diagnosis and prevention of trchinellosis. We provide a near-complete new T.p reference genome using SMRT technology, first time confirmed and characterized T.p DNA methylome, enabling full annotation. Based on this new version, we show repetitive sequences play important role in genome expansion, in synergy with DNA methylation during evolution. We further portrait the genomic and epigenomic regulation on E-S products in relation with their parasitism differences, especially for two super-families, including DNase II and EGF-like domain proteins.
Project description:We present the first study to confirm the existence of DNA methylation in the parasitic nematode Trichinella spiralis, and we characterize the methylomes of the three life-cycle stages of this food-borne infectious human pathogen. We observe a drastic increase in DNA methylation during the transition from the new born to mature stage, and we further identify parasitism-related genes that show changes in DNA methylation status between life cycle stages. We also evaluated differential gene expression among the three life stages using Illumina HiSeq 2000 RNA-seq technology.
