Chemosensory system is the most complex, specialized mode of signal transduction in
bacteria and archaea. It is composed of several core and auxiliary protein components that …

Chemoreceptors in bacteria detect a variety of signals and feed this information into
chemosensory pathways that represent a major mode of signal transduction. The five …

Chemotaxis is crucial for the survival of bacteria, and the signaling systems associated with
it exhibit a high level of evolutionary conservation. The architecture of the chemosensory …

Understanding the principles underlying the plasticity of signal transduction networks is
fundamental to decipher the functioning of living cells. In Myxococcus xanthus, a particular …

Chemoreceptors are crucial components in the bacterial sensory systems that mediate
chemotaxis. Chemotactic responses exhibit exquisite sensitivity, extensive dynamic range …

The molecular machinery that controls chemotaxis in bacteria is substantially more complex
than any other signal transduction system in prokaryotes, and its origins and variability …

Motile bacteria regulate chemotaxis through a highly conserved chemosensory signal-
transduction system. System-wide analyses and mathematical modeling are facilitated by …

The ability of microbes to rapidly sense and adapt to environmental changes plays a major
role in structuring microbial communities, in affecting microbial activities, as well as in …

Chemoreceptor-based signaling pathways are among the major modes of bacterial signal
transduction, and Pseudomonas aeruginosa PAO1 is an important model to study their …

Motile bacteria use chemotaxis to migrate towards environments that are favorable for
growth and survival. The signaling pathway that mediates this behavior is largely conserved …