9296 results for "cancer rna-seq"

in 47.32 milliseconds.

• Single-cell RNA-seq of matched primary GBM tumours, patient-derived organoids, and gliomasphere lines

  Single-cell RNA-seq of primary GBM tumours and matched patient-derived organoids and gliomasphere lines. Obtained using the 10X Genomics single-cell 3' expression solution (v2 chemistry). Primary samples and PDOs from 12 tumours from 10 patients (10 primary, two recurrent), and gliomasphere lines from a subset of five tumours. Samples were obtained from two spatially distinct regions of each tumour.

  Dataset EGAD00001007936

• two tables containing RNASeq expression values to patients with RNA-Seq data in the study "Comprehensive genomic characterization of refractory multiple myeloma (H067)"

  two tables containing RNASeq expression values to patients with RNA-Seq data in the study "Comprehensive genomic characterization of refractory multiple myeloma (HIPO_067)". From the bam files gene expression was calculated with the annotation of Gencode.v19. Raw Counts and TPM values are given in one table, the other contains filtered TMM normalized CPM values (genes < 1CPM omitted).

  Dataset EGAD00001008363

• Single-cell RNA-seq of patient-derived organoids across three generations

  Single-cell RNA-seq of first-, second-, and third-generation patient-derived organoids. Obtained using the 10X Genomics single-cell 3' expression solution (v3 chemistry). First- and second-generation PDOs from one patient and first-, second-, and third-generation PDOs from three additional patients.

  Dataset EGAD00001008431

• Transcriptome analysis of Fabry disease iPSC-derived cardiomyocytes treated with splice-regulating compound; RECTAS

  In order to investigate transcriptome profiles in response to splice-regulating compounds, iPSC-derived cardyomyocytes were treated with RECTAS and transcriptome study was conducted by RNA-seq. Splicing profiles of cells in each condition were then analyzed.

  Study JGAS000225

• Transcriptome analysis of Familial dysautonomia patient cells treated with splice-regulating compounds

  In order to investigate familial dysautonomia patient fibroblasts in response to splice-regulating compounds, cells were treated with RECTAS or TG003 and transcriptome study was conducted by RNA-seq. Splicing profiles of cells in each condition were then analyzed.

  Study JGAS000170

• Methylation profiles in patients with blastic plasmacytoid dendritic cell neoplasm

  We added 7 additional samples to our previous cohort (EGAS00001006166). Each samples comprises RNA-seq and whole exome sequencing data. Methylation EPIC Array data have been deposited in Gene Expression Omnibus (GEO) under accession number GSE230487.

  Study EGAS00001007201

• scMultiome

  This dataset gather scMultiomic data including RNA-seq and ATAC-seq in MM.1S in control and dex condition at 1h and 4h

  Dataset EGAD00001011140

• Probabilistic cell type assignment of single-cell transcriptomic data reveals spatiotemporal microenvironment dynamics in human cancers

  Single-cell RNA sequencing (scRNA-seq) has transformed biomedical research, enabling decomposition of complex tissues into disaggregated, functionally distinct cell types. For many applications, investigators wish to identify cell types with known marker genes. Typically, such cell type assignments are performed through unsupervised clustering followed by manual annotation based on these marker genes, or via "mapping" procedures to existing data. However, the manual interpretation required in the former case scales poorly to large datasets, which are also often prone to batch effects, while existing data for purified cell types must be available for the latter. Furthermore, unsupervised clustering can be error-prone, leading to under- and over- clustering of the cell types of interest. To overcome these issues we present CellAssign, a probabilistic model that leverages prior knowledge of cell type marker genes to annotate scRNA-seq data into pre-defined and de novo cell types. CellAssign automates the process of assigning cells in a highly scalable manner across large datasets while simultaneously controlling for batch and patient effects. We demonstrate the analytical advantages of CellAssign through extensive simulations and exemplify real-world utility to profile the spatial dynamics of high-grade serous ovarian cancer and the temporal dynamics of follicular lymphoma. Our analysis reveals subclonal malignant phenotypes and points towards an evolutionary interplay between immune and cancer cell populations with cancer cells escaping immune recognition.

  Study EGAS00001003452

• Inferring expressed genes by whole-genome sequencing of plasma DNA

  The analysis of cell-free DNA (cfDNA) in plasma represents a rapidly advancing field in medicine. cfDNA consists predominantly of nucleosome-protected DNA shed into the bloodstream by cells undergoing apoptosis. We performed whole-genome sequencing (WGS) of plasma DNA and identified two discrete regions at transcription start sites (TSS) where the nucleosome occupancy results in different read-depth coverage patterns in expressed and silent genes. By employing machine learning for gene classification we found that the plasma DNA read depth patterns from healthy donors reflected the expression signature of hematopoietic cells. In cancer patients with metastatic disease, we were able to classify expressed cancer driver genes in regions with somatic copy number gains with high accuracy. We could even determine the expressed isoform of genes with several TSSs as confirmed by RNA-Seq of the matching primary tumor. Our analyses provide functional information about the cells releasing their DNA into the circulation.

  Study EGAS00001001754

• Comprehensive molecular and clinicopathological profiling of glioma

  Various molecular profiles are needed to classify malignant brain tumors, including gliomas, based on the latest classification criteria of the World Health Organization, and their poor prognosis necessitates new therapeutic targets. The Todai OncoPanel 2 RNA Panel (TOP2-RNA) is a custom-target RNA-sequencing (RNA-seq) using the junction capture method to maximize the sensitivity of detecting 455 fusion gene transcripts and analyze the expression profiles of 1,390 genes. This study aimed to classify gliomas and identify their molecular targets using TOP2-RNA. A total of 124 frozen samples of malignant gliomas were subjected to TOP2-RNA for classification based on their molecular profiles and the identification of molecular targets.

  Study JGAS000671