Calling fusion genes from RNA-seq data is well established, but other transcriptional variants are difficult to detect using existing approaches. To identify all types of variants in transcriptomes we developed MINTIE, an integrated pipeline for RNA-seq data. We take a reference-free approach, combining de novo assembly of transcripts with differential expression analysis to identify up-regulated novel variants in a case sample. We compare MINTIE with eight other approaches, detecting > 85% of variants while no other method is able to achieve this. We posit that MINTIE will be able to identify new disease variants across a range of disease types
Identifying genomic variation is a crucial step for unraveling the relationship between genotype and...
Background Lack of functional evidence hampers variant interpretation, leaving a large proportion of...
RNA alternative splicing is primarily responsible for transcriptome diversity and is relevant to hum...
The primary function for RNA sequencing (RNA-seq) is to investigate the transcriptome through differ...
Background: RNA-seq is a powerful and cost-effective technology for molecular diagn...
RNA-seq has proven to be a powerful technique for transcriptome profiling based on next-generation s...
Contains RNA-seq data set of 1,500 simulated heterozygous transcriptomic variants (500 fusions, 500 ...
Abstract Transcripts are frequently modified by structural variations, which lead to fused transcrip...
Next-generation sequencing technologies have revolutionarily advanced sequence-based research with t...
Rare diseases are estimated to affect 3.75% of the global population, which roughly translates to 30...
RNA sequencing (RNA-seq) has emerged as a powerful approach to discover disease-causing gene regulat...
High-Throughput Sequencing is one of the most promising tools available to researchers united by the...
High-throughput mRNA sequencing (RNA-Seq) promises simultaneous transcript discovery and abundance e...
Background: RNA-sequencing (RNA-seq) is a powerful technique for the identification of genetic varia...
Although whole-exome sequencing and whole-genome sequencing has tremendously improved our understand...
Identifying genomic variation is a crucial step for unraveling the relationship between genotype and...
Background Lack of functional evidence hampers variant interpretation, leaving a large proportion of...
RNA alternative splicing is primarily responsible for transcriptome diversity and is relevant to hum...
The primary function for RNA sequencing (RNA-seq) is to investigate the transcriptome through differ...
Background: RNA-seq is a powerful and cost-effective technology for molecular diagn...
RNA-seq has proven to be a powerful technique for transcriptome profiling based on next-generation s...
Contains RNA-seq data set of 1,500 simulated heterozygous transcriptomic variants (500 fusions, 500 ...
Abstract Transcripts are frequently modified by structural variations, which lead to fused transcrip...
Next-generation sequencing technologies have revolutionarily advanced sequence-based research with t...
Rare diseases are estimated to affect 3.75% of the global population, which roughly translates to 30...
RNA sequencing (RNA-seq) has emerged as a powerful approach to discover disease-causing gene regulat...
High-Throughput Sequencing is one of the most promising tools available to researchers united by the...
High-throughput mRNA sequencing (RNA-Seq) promises simultaneous transcript discovery and abundance e...
Background: RNA-sequencing (RNA-seq) is a powerful technique for the identification of genetic varia...
Although whole-exome sequencing and whole-genome sequencing has tremendously improved our understand...
Identifying genomic variation is a crucial step for unraveling the relationship between genotype and...
Background Lack of functional evidence hampers variant interpretation, leaving a large proportion of...
RNA alternative splicing is primarily responsible for transcriptome diversity and is relevant to hum...