Bacterial small RNAs derived from the 3' untranslated region of an mRNA can serve as autoregulatory elements.

A bacteriophage remodels the RNA metabolism machinery of a bacterial host to sequentially clear host transcripts and then stabilize the viral RNA.

Under nitrogen limitation, Salmonella and Escherichia coli express a messenger RNA to translate glutamine synthetase, and concomitantly the messenger RNA produces a small RNA from its 3′ end to inhibit the translation of 2-oxoglutarate dehydrogenase of the TCA cycle.

RNA chaperone Hfq dynamically binds various pools of cellular RNAs to execute different regulatory functions.

Functional characterization of a pair of cis-encoded antisense RNAs reveals a role for RNase III and antisense regulation in the biogenesis and regulatory activity of a bacterial virulence factor-regulating small RNA.

Transcriptome-scale RNA imaging and lifetime measurements reveal that the E. coli transcriptome is spatially organized and that this organization modulates the post-transcriptional fate of bacterial mRNAs.

Pulsed-labeling hydrogen exchange on the ribonuclease H family show that the major folding intermediate is conserved over three billion years of evolution, but the path leading to this intermediate varies.

Biochemical analysis and computational modeling reveal how cells mechanistically control the quality of their proteomes and demonstrate that the precise alignment of subunits in oligomeric complexes can profoundly affect enzymatic properties.

Three-dimensional structure of CRISPR Cas7-11 shed light on protein evolution and guide development of biotechnology for RNA manipulations in cells.

Comprehensive structural and compositional characterization of the in vivo 30S ribosomal assembly landscape reveals parallel pathways for 3′-domain formation and a previously unknown role for the assembly factor RimP.