Heteroscarus acroptilus
Ontology highlight
ABSTRACT:
PROVIDER: PRJNA1228095 | ENA |
REPOSITORIES: ENA
Similar Datasets
Project description:Heteroscarus acroptilus (Rainbow Cale) genome, fHetAcr1, haplotype 2
| PRJNA1228094 | ENA
Project description:Heteroscarus acroptilus (Rainbow Cale) genome, fHetAcr1, haplotype 1
| PRJNA1228093 | ENA
Project description:Over the last century, rainbow trout (RBT) has been widely used as a biological model in many biological disciplines and has become one of the best-studied fish. For example, RBT is an excellent model to study gene evolution as it is a partially tetraploid organism that underwent a whole-genome duplication (salmonid-specific 4th WGD) followed by a partial re-diploidization and significant genome rearrangements. In the meantime, RBT domestication spread quickly and globally to six continents for aquaculture and recreation. Efforts to sequence a pangenome reference have begun, and genome sequence is available for at least three rainbow trout clonal lines. However, epigenome reference annotations are needed to understand the functional genomic basis of RBT's phenotypic, environmental, and evolutional variations. This study provides a comprehensive catalog and epigenome annotation tracks of the rainbow trout. Gene regulatory elements, including chromatin histone modifications, chromatin accessibility, and DNA methylation, were identified by integrating data from ChIP-seq, ATAC-seq, and Methyl Mini-seq across RBT tissues together with RNA-seq gene expression data sets.
2024-10-03 | GSE245212 | GEO
Project description:Olisthops cyanomelas (Herring Cale), fOliCya1, sequence data
| PRJNA1121351 | ENA
Project description:Rainbow trout (Oncorhynchus mykiss) is highly sensitive to high-temperature stress as an important economic cold-water fish. While previous research has concentrated on the transcriptomic to acute heat stress in rainbow trout, there remains a gap in knowledge regarding the overarching regulatory mechanisms at the translation level. In our research, we utilized a combination of transcriptomic and translatomic analyses to investigate the intricate molecular response mechanisms in the liver of rainbow trout when subjected to heat stress. Through comprehensive multi-omics analysis, we revealed the dynamic translational pattern of rainbow trout liver under heat stress for the first time. Comparative analysis of ribosome analysis data with RNA-seq data showed that the fold changes of gene expression at the transcriptional level were highly correlated (R2 = 0.83) with those at the translational level globally. In total, 2,203 genes exhibited significant alterations exclusively within the translational level. However, the limited overlap in response genes between transcription and translation under heat stress suggests that these two processes may independently modulate the cellular response to thermal challenges. Significant changes in the translation efficiency of 809 genes were observed under heat stress. Further analysis indicated that the translation efficiency of genes were strongly influenced by sequence characteristics such as GC content, coding sequence length and NMFE. Moreover, 3,468 putative uORFs were identified in 2,676 genes, which potentially modulating translation efficiency of mORFs. These findings provide a novel perspective for understanding the physiological adaptations of rainbow trout in response to changes in ambient temperature.
2024-04-01 | GSE262612 | GEO
Project description:Rainbow trout (Oncorhynchus mykiss) is highly sensitive to high-temperature stress as an important economic cold-water fish. While previous research has concentrated on the transcriptomic to acute heat stress in rainbow trout, there remains a gap in knowledge regarding the overarching regulatory mechanisms at the translation level. In our research, we utilized a combination of transcriptomic and translatomic analyses to investigate the intricate molecular response mechanisms in the liver of rainbow trout when subjected to heat stress. Through comprehensive multi-omics analysis, we revealed the dynamic translational pattern of rainbow trout liver under heat stress for the first time. Comparative analysis of ribosome analysis data with RNA-seq data showed that the fold changes of gene expression at the transcriptional level were highly correlated (R2 = 0.83) with those at the translational level globally. In total, 2,203 genes exhibited significant alterations exclusively within the translational level. However, the limited overlap in response genes between transcription and translation under heat stress suggests that these two processes may independently modulate the cellular response to thermal challenges. Significant changes in the translation efficiency of 809 genes were observed under heat stress. Further analysis indicated that the translation efficiency of genes were strongly influenced by sequence characteristics such as GC content, coding sequence length and NMFE. Moreover, 3,468 putative uORFs were identified in 2,676 genes, which potentially modulating translation efficiency of mORFs. These findings provide a novel perspective for understanding the physiological adaptations of rainbow trout in response to changes in ambient temperature.
2024-04-16 | GSE263547 | GEO