Introduction to RNAseq workshop
  • Home
  • Setup
  • Schedule
  • Case study
  • Day 1
    • 1.1 RNAseq experimental workflow
    • 1.2 Data QC with nf-core/rnaseq
    • 1.3 Data preprocessing with nf-core/rnaseq
    • 1.4 Read alignment and quantification
    • 1.5 Workflow performance
    • 1.6 Session 1 wrap up
  • Day 2
    • 2.1 RStudio for downstream analysis
    • 2.2 Exploratory analysis
    • 2.3 Differential expression analysis
    • 2.4 Functional enrichment analysis
    • 2.5 Session 2 wrap up
    • 2.6 Workshop summary
  • Tips & tricks

On this page

  • 2.6.1 Day 1: Raw sequence to gene counts
  • 2.6.2 Day 2: Counts to genes and functional enrichments

Workshop summary

2.6.1 Day 1: Raw sequence to gene counts

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On Day 1 we used the nf-core/rnaseq pipeline to convert raw RNAseq data into raw counts.
We discussed the following essential steps in a RNAseq analysis workflow:

  • Check the quality of raw-reads.
  • Trim the raw-reads to get rid of bad-quality read-regions and/or bad-quality reads.
  • Align the trimmed-reads to reference sequence to identify where they belong
  • Quantify the aligned reads to get gene-level read-counts.

Next:

  • We discussed the workflow management tool nextflow which is used for automated, reproducible, flexible and portable analysis.
  • We excecuted the nf-core/rnaseq pipeline and interpreted its outputs.

2.6.2 Day 2: Counts to genes and functional enrichments

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On Day 2 we used the raw counts to identify the differentially expressed genes and highlighted the relevant functions.
The following steps were identified to be essential:

  • Perform an exploratory analysis of the count data for quality control.
  • Analyse the count data to identify differentially expressed genes.
  • Identify functional enrichments from differentially expressed genes.
  • We discussed how to perform reproducible analysis in Rstudio with Rmarkdown using singularity containers.
 
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