TY - JOUR
T1 - Deep sequencing approaches for the analysis of prokaryotic transcriptional boundaries and dynamics
AU - James, Katherine
AU - Cockell, Simon J.
AU - Zenkin, Nikolay
N1 - This work was supported by Grants from UK Biotechnology and Biological Sciences Research Council, Wellcome Trust and Leverhulme Trust to N.Z.
PY - 2017/5/1
Y1 - 2017/5/1
N2 - The identification of the protein-coding regions of a genome is straightforward due to the universality of start and stop codons. However, the boundaries of the transcribed regions, conditional operon structures, non-coding RNAs and the dynamics of transcription, such as pausing of elongation, are non-trivial to identify, even in the comparatively simple genomes of prokaryotes. Traditional methods for the study of these areas, such as tiling arrays, are noisy, labour-intensive and lack the resolution required for densely-packed bacterial genomes. Recently, deep sequencing has become increasingly popular for the study of the transcriptome due to its lower costs, higher accuracy and single nucleotide resolution. These methods have revolutionised our understanding of prokaryotic transcriptional dynamics. Here, we review the deep sequencing and data analysis techniques that are available for the study of transcription in prokaryotes, and discuss the bioinformatic considerations of these analyses.
AB - The identification of the protein-coding regions of a genome is straightforward due to the universality of start and stop codons. However, the boundaries of the transcribed regions, conditional operon structures, non-coding RNAs and the dynamics of transcription, such as pausing of elongation, are non-trivial to identify, even in the comparatively simple genomes of prokaryotes. Traditional methods for the study of these areas, such as tiling arrays, are noisy, labour-intensive and lack the resolution required for densely-packed bacterial genomes. Recently, deep sequencing has become increasingly popular for the study of the transcriptome due to its lower costs, higher accuracy and single nucleotide resolution. These methods have revolutionised our understanding of prokaryotic transcriptional dynamics. Here, we review the deep sequencing and data analysis techniques that are available for the study of transcription in prokaryotes, and discuss the bioinformatic considerations of these analyses.
KW - deep-sequencing
KW - prokaryotic transcription
KW - transcription start sites
KW - transcription termination sites
KW - transcriptional dynamics
KW - bioinformatics
U2 - 10.1016/j.ymeth.2017.04.016
DO - 10.1016/j.ymeth.2017.04.016
M3 - Article
VL - 120
SP - 76
EP - 84
JO - Methods
JF - Methods
SN - 1046-2023
ER -