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Chapter 23 : Epitranscriptomics: RNA Modifications in Bacteria and Archaea

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Abstract:

Today, RNA is no longer seen as a mere intermediary, transferring information from genes to proteins. It has become more and more obvious that RNA plays additional biological roles in living organisms ( ). Such roles are highly diverse, including catalytic and gene-regulatory functions. While the catalytic roles in present-day biology appear limited, regulatory RNAs are abundant in all kingdoms of life and control central biological processes from cell cycle progression, differentiation, adaptation, and stress response to pathological processes, such as carcinogenesis or inflammation ( ).

Citation: Höfer K, Jäschke A. 2019. Epitranscriptomics: RNA Modifications in Bacteria and Archaea, p 399-420. In Storz G, Papenfort K (ed), Regulating with RNA in Bacteria and Archaea. ASM Press, Washington, DC. doi: 10.1128/microbiolspec.RWR-0015-2017
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Figures

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Figure 1

Identification of RNA modifications. (A) Identification of RNA modifications by a combination of digest to single nucleotides and chromatography. Total RNA is digested by nucleases (nuclease P1) and single building blocks separated by TLC or MS coupled with LC. (B) Identification of RNA modifications and their associated transcripts. Modified RNA is specifically enriched by a protocol that is based on antibody treatment (immunoprecipitation), an enzymatic reaction, or a chemical treatment. Afterwards, enriched, modified RNA is converted into cDNA to produce a library for NGS. The reads are mapped to the genome to identify the sequence of the transcripts that bear a specific RNA modification. Known or possible 5′-terminal (C) or internal (D) mRNA modifications in bacteria and archaea.

Citation: Höfer K, Jäschke A. 2019. Epitranscriptomics: RNA Modifications in Bacteria and Archaea, p 399-420. In Storz G, Papenfort K (ed), Regulating with RNA in Bacteria and Archaea. ASM Press, Washington, DC. doi: 10.1128/microbiolspec.RWR-0015-2017
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Image of Figure 2
Figure 2

Methods to detect internal RNA modifications. (A) Identification of m5C-modified mRNA by bisulfite sequencing. Selective conversion of cytosine to uracil by bisulfite ions, whereas m5C remains as cytosine. After reverse transcription, a cDNA library is prepared, analyzed by high-throughput sequencing, and mapped to the genome. Cytosine is mapped as thymine, whereas m5C residues read as cytosine. (B) Ψ-Seq: identification of pseudouridine-modified RNA. mRNA is treated with CMC, which selectively reacts with Ψ and causes a stop during reverse transcription. cDNA libraries are amplified and sequenced. The reads from a CMC-treated and nontreated control are compared to map pseudouridine-modified RNA. (C) Identification of methylated adenosine by m6A-Seq. Total RNA is fragmented to 100-nucleotide-long RNAs. m6A-specific antibodies are used to immunoprecipitate RNA. RNA is reverse-transcribed to cDNA and analyzed by high-throughput sequencing. These reads produce a peak whose summit reflects an underlying m6A residue. (D) Identification of adenosine-to-inosine editing: ICE-Seq. ICE is based on cyanoethylation of inosine by acrylonitrile combined with reverse transcription and high-throughput sequencing. Inosine pairs with cytosine (control), whereas the chemical modification of inosine results in a stop during reverse transcription. Erased G signals originate from inosines in the sequence map of cDNAs and are finally used to identify A-to-I editing sites. (E) Mapping of 2′-O-methylated nucleotides (Nm) by Nm-Seq. Fragmented RNA is subjected to iterative oxidation-elimination-dephosphorylation cycles that remove 2′-hydroxylated nucleotides in the 3′-to-5′ direction. Internal 2′-O-methylation sites stay intact, and fragments ending with 2′-hydroxyl are finally blocked by an incomplete oxidation-elimination cycle. 2′-O-methylated RNA fragments are ligated to an adapter. After library construction and high-throughput sequencing, reads are mapped to the genome. At 2′-OMe sites, an asymmetric coverage profile is observed whose uniform 3′ end corresponds to the methylation position.

Citation: Höfer K, Jäschke A. 2019. Epitranscriptomics: RNA Modifications in Bacteria and Archaea, p 399-420. In Storz G, Papenfort K (ed), Regulating with RNA in Bacteria and Archaea. ASM Press, Washington, DC. doi: 10.1128/microbiolspec.RWR-0015-2017
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Figure 3

Identification of 5′-terminal RNA modifications. (A) Differential RNA-Seq to identify primary transcripts. Total RNA is treated with a 5′-P-dependent exonuclease that degrades specifically 5′-P-RNA. 5′-PPP-RNA is converted into 5′-P-RNA enzymatically by TAP or similar enzymes. The 5′ end is ligated to an adapter sequence and the RNA reverse-transcribed into cDNA, which is analyzed by high-throughput sequencing. The reads are mapped to the genome to identify TSSs. (B) Schematic representation of the NAD captureSeq protocol that allows the identification of NAD-capped RNAs. Total RNA is treated with ADPRC from , which specifically catalyzes the transglycosylation reaction of NAD with 4-pentyn-1-ol. The product of the reaction is biotinylated by CuAAC (click reaction). The NAD-capped RNA is captured as well as enriched on streptavidin beads and ligated to an adapter. After on-bead reverse transcription and a second adapter ligation, the obtained cDNA is amplified by PCR and submitted to high-throughput sequencing.

Citation: Höfer K, Jäschke A. 2019. Epitranscriptomics: RNA Modifications in Bacteria and Archaea, p 399-420. In Storz G, Papenfort K (ed), Regulating with RNA in Bacteria and Archaea. ASM Press, Washington, DC. doi: 10.1128/microbiolspec.RWR-0015-2017
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Figure 4

Biosynthesis and removal of 5′-terminal RNA modification. (A) Synthesis of m7G-capped RNA in eukaryotes. 5′-PPP-RNA is synthesized by the RNA polymerase. The 5′-γ-phosphate of the nascent pre-mRNA is hydrolyzed by an RNA triphosphatase to 5′-PP-RNA. In the next step, a guanine monophosphate nucleoside is transferred to the 5′-diphosphate mRNA end by RNA guanylyltransferase to generate G-PPP-RNA. Finally, the guanine N7 position (blue) is methylated by SAM to form m7G-PPP-RNA by SAM. (B) Schematic representation of the synthesis of primary transcripts and cofactor-capped RNA in . Bacterial RNA polymerase is able to initiate transcription with a nucleotide triphosphate or an adenosine-containing cofactor, such as NAD, to generate 5′-PPP-RNA or NAD/cofactor-capped RNA. (C) Decapping of m7G-capped RNA in eukaryotic organisms. A decapping enzyme complex including Dcp2 removes the cap and converts the RNA in 5′-P-RNA that is targeted for degradation by 5′-dependent exonucleases like Xrn1. (D) 5′-End processing in . NAD-RNA is decapped by NudC into 5′-P-RNA. RppH processes primary transcripts and 5′-PP-RNA into 5′-P-RNA, which triggers RNase E-mediated degradation.

Citation: Höfer K, Jäschke A. 2019. Epitranscriptomics: RNA Modifications in Bacteria and Archaea, p 399-420. In Storz G, Papenfort K (ed), Regulating with RNA in Bacteria and Archaea. ASM Press, Washington, DC. doi: 10.1128/microbiolspec.RWR-0015-2017
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Figure 5

Methods to relatively quantify and characterize 5′-terminally modified RNAs and their decapping enzymes and . (A) Schematic representation of the identification and relative quantification of 5′-PP-RNA (PACO assay) . The 5′ end of 5′-PP-RNA is capped with a guanosine. Subsequent treatment with alkaline phosphatase removes the exposed 5′-terminal phosphates of 5′-PPP-RNA and 5′-P-RNA but not the protected phosphates of the guanylylated G-PPP-RNA, which is then converted to 5′-P-RNA by treatment with a pyrophosphohydrolase. After adapter ligation and Northern blot analysis, the amount of 5′-PP-RNA can be quantified by a shift. (B) APB PAGE to quantify 5′-NAD-capped RNA . APB interacts with -diols of the ribose, which results in retardation of NAD-capped RNA during gel electrophoresis. (C) Identification of decapping enzymes by specific radioactive labeling of RNA . NAD-capped RNA is transcribed by the bacteriophage T7 RNA polymerase in the presence of radioactively labeled NAD. This technology enables specific radioactive labeling of each RNA with a single radioactive mark specifically located at the 5′ termini. After a decapping reaction, e.g., by NudC, 5′-P-RNA is generated. The accessible radioactive phosphate is removed by alkaline phosphatase treatment. The RNA is analyzed by PAGE.

Citation: Höfer K, Jäschke A. 2019. Epitranscriptomics: RNA Modifications in Bacteria and Archaea, p 399-420. In Storz G, Papenfort K (ed), Regulating with RNA in Bacteria and Archaea. ASM Press, Washington, DC. doi: 10.1128/microbiolspec.RWR-0015-2017
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Tables

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Table 1

Internal RNA modifications

Citation: Höfer K, Jäschke A. 2019. Epitranscriptomics: RNA Modifications in Bacteria and Archaea, p 399-420. In Storz G, Papenfort K (ed), Regulating with RNA in Bacteria and Archaea. ASM Press, Washington, DC. doi: 10.1128/microbiolspec.RWR-0015-2017
Generic image for table
Table 2

Cofactor-capped RNAs

Citation: Höfer K, Jäschke A. 2019. Epitranscriptomics: RNA Modifications in Bacteria and Archaea, p 399-420. In Storz G, Papenfort K (ed), Regulating with RNA in Bacteria and Archaea. ASM Press, Washington, DC. doi: 10.1128/microbiolspec.RWR-0015-2017

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