This review highlights fundamental and lineage-specific actin regulatory mechanisms, including biochemical regulation of nucleators, ATP hydrolysis-dependent aging, and conformational changes.
This review highlights the hierarchical and lineage-specific mechanisms regulating eukaryotic actin filament functions.
Eukaryotic actin filaments play a central role in numerous cellular functions, with each function relying on the interaction of actin filaments with specific actin-binding proteins. Understanding the mechanisms that regulate these interactions is key to uncovering how actin filaments perform diverse roles at different cellular locations. Several distinct classes of actin regulatory mechanisms have been proposed and experimentally supported. However, these mechanisms vary in their nature and hierarchy. For instance, some operate under the control of others, highlighting hierarchical relationships. Additionally, while certain mechanisms are fundamental and ubiquitous across eukaryotes, others are lineage-specific. Here, we emphasize the fundamental importance and functional significance of the following actin regulatory mechanisms: the biochemical regulation of actin nucleators, the ATP hydrolysis-dependent aging of actin filaments, thermal fluctuation- and mechanical strain-dependent conformational changes of actin filaments, and cooperative conformational changes induced by actin-binding proteins.
Uyeda et al. (Thu,) reported a review. This review highlights fundamental and lineage-specific actin regulatory mechanisms, including biochemical regulation of nucleators, ATP hydrolysis-dependent aging, and conformational changes.
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