Chemotaxis is the directed motility by means of which microbes sense chemical cues and
relocate towards more favorable environments. Methyl-accepting chemotaxis proteins …

As an important model for transmembrane signaling, methyl-accepting chemotaxis proteins
(MCPs) have been extensively studied by using genetic, biochemical, and structural …

Central to the different forms of taxis are methyl‐accepting chemotaxis proteins (MCPs). The
increasing number of genome sequences reveals that MCPs differ enormously in sequence …

The methyl-accepting chemotaxis proteins (MCPs) are concentrated at the cell poles in an
evolutionarily diverse panel of bacteria and an archeon. In elongated cells, the MCPs are …

Chemotaxis, mediated by methyl-accepting chemotaxis protein (MCP) receptors, plays an
important role in the ecology of bacterial populations. This paper presents the first …

In bacterial chemotaxis, transmembrane receptor proteins detect attractants and repellents
in the medium and send intracellular signals that control motility. The cytoplasmic proteins …

Sensory transduction in E. coli consists of two phases, excitation and adaptation, both of
which involve the methyl-accepting chemotaxis proteins (MCPs). These molecules relay …

Chemoreceptors are key components of the high-performance signal transduction system
that controls bacterial chemotaxis. Chemoreceptors are typically localized in a cluster at the …

Chemoreceptors of the methyl-accepting chemotaxis protein family form clusters, typically at
the cell pole (s), in both Bacteria and Archaea. To elucidate the architecture and signaling …

Methyl-accepting chemotaxis proteins (MCPs) of Escherichia coli undergo changes in
methylation state in response to chemical stimuli. The addition of methyl groups to MCP is …