Bacteria possess numerous and diverse means of gene regulation using RNA molecules,
including mRNA leaders that affect expression in cis, small RNAs that bind to proteins or …

Bacteria use a range of RNA regulators collectively termed small RNAs (sRNAs) to help
respond to changes in the environment. Many sRNAs regulate their target mRNAs through …

Competitive endogenous (ce) RNAs cross-regulate each other through sequestration of
shared microRNAs and form complex regulatory networks based on their microRNA …

The behavior of genetic circuits is often poorly predictable. A gene's expression level is not
only determined by the intended regulators, but also affected by changes in ribosome …

During ribosomal and transfer RNA maturation, external transcribed spacer (ETS) and
internal transcribed spacer (ITS) sequences are excised and, as non-functional by-products …

Small non‐coding RNAs (sRNAs) have important functions as genetic regulators in
prokaryotes. sRNAs act post‐transcriptionally through complementary pairing with target …

Over the past 3 years, bacterial transcriptomics has undergone a massive revolution.
Increased sequencing capacity and novel tools have made it possible to explore the …

NAD and NADP, a pivotal class of cofactors, which function as essential electron donors or
acceptors in all biological organisms, drive considerable catabolic and anabolic reactions …

MicroRNAs (miRNAs) are small RNA molecules, about 22 nucleotide long, which post-
transcriptionally regulate their target messenger RNAs (mRNAs). They accomplish key roles …

The central role of small RNAs in regulating bacterial gene expression has been elucidated
in the past years. Typically, small RNAs act via specific basepairing with target mRNAs …