Chemotaxis signaling pathways enable bacteria to sense and respond to their chemical
environment and, in some species, are critical for lifestyle processes such as biofilm …

Bacteria direct their movement in respond to gradients of nutrients and other stimuli in the
environment through the chemosensory system. The behavior is mediated by chemosensory …

Bacterial chemosensory arrays have served as a model system for in-situ structure
determination, clearly cataloguing the improvement of cryo-electron tomography (cryoET) …

Electron cryotomography (ECT) can produce three-dimensional images of biological
samples such as intact cells in a near-native, frozen-hydrated state to macromolecular …

Chemotactic responses in bacteria require large, highly ordered arrays of sensory proteins
to mediate the signal transduction that ultimately controls cell motility. A mechanistic …

Motile bacteria employ conserved chemotaxis networks to detect chemical gradients in their
surroundings and effectively regulate their locomotion, enabling the location of essential …

In chemotactic bacteria, transmembrane chemoreceptors, CheA and CheW form the core
signalling complex of the chemotaxis sensory apparatus. These complexes are organized in …

Bacterial chemoreceptors cluster in highly ordered, cooperative, extended arrays with a
conserved architecture, but the principles that govern array assembly remain unclear. Here …

Most motile bacteria sense and respond to their environment through a transmembrane
chemoreceptor array whose structure and function have been well-studied, but many …

To enable the processing of chemical gradients, chemotactic bacteria possess large arrays
of transmembrane chemoreceptors, the histidine kinase CheA, and the adaptor protein …