In vivo structure probing of RNA inArchaea: novel insights into the ribosome structure ofMethanosarcina acetivorans

Author:

Williams Allison M.ORCID,Jolley Elizabeth A.ORCID,Santiago-Martínez Michel GeovanniORCID,Chan Cheong XinORCID,Gutell Robin R.ORCID,Ferry James G.,Bevilacqua Philip C.ORCID

Abstract

Structure probing combined with next-generation sequencing (NGS) has provided novel insights into RNA structure–function relationships. To date, such studies have focused largely on bacteria and eukaryotes, with little attention given to the third domain of life, archaea. Furthermore, functional RNAs have not been extensively studied in archaea, leaving open questions about RNA structure and function within this domain of life. With archaeal species being diverse and having many similarities to both bacteria and eukaryotes, the archaea domain has the potential to be an evolutionary bridge. In this study, we introduce a method for probing RNA structure in vivo in the archaea domain of life. We investigated the structure of ribosomal RNA (rRNA) fromMethanosarcina acetivorans, a well-studied anaerobic archaeal species, grown with either methanol or acetate. After probing the RNA in vivo with dimethyl sulfate (DMS), Structure-seq2 libraries were generated, sequenced, and analyzed. We mapped the reactivity of DMS onto the secondary structure of the ribosome, which we determined independently with comparative analysis, and confirmed the accuracy of DMS probing inM. acetivorans. Accessibility of the rRNA to DMS in the two carbon sources was found to be quite similar, although some differences were found. Overall, this study establishes the Structure-seq2 pipeline in the archaea domain of life and informs about ribosomal structure withinM. acetivorans.

Funder

National Institutes of Health

Pennsylvania State University Eberly College of Science Stanley R. Person Graduate Fellowship in Molecular Biology

the Division of Chemical Sciences, Geosciences, and Biosciences, Office of Basic Energy Sciences of the U.S. Department of Energy

Publisher

Cold Spring Harbor Laboratory

Subject

Molecular Biology

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