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The precise understanding of the biology of a living cell requires the identification and quantification of the molecular components necessary to sustain life. One such element is RNA. Two independent high-throughput strategies are available to identify the entire collection of RNA molecules produced by a cell population, which is currently known as the transcriptome. One technique relies on microarray technology (tiling arrays), whereas the second one relies on sequencing the RNA pool (RNA-seq) (1). Both techniques offer the advantage that the identification of the RNA content is not biased by protein-based genome annotation. The application of these methods to the transcriptome analysis in bacteria has uncovered the existence of a large amount of RNA molecules that overlap at least in some portion with protein-encoding RNA transcripts, generating perfect sense/antisense RNA duplexes (2⇓⇓–5).Peer reviewe

Overlapping transcription and bacterial RNA removal