Key result
Review details how actin isoform structure dictates functional mechanisms, post-translational modifications, and disease-linked mutations.
Why the study?
Understanding the specific structural and functional roles of actin isoforms is crucial for elucidating cytoskeletal dynamics and their implications in health and disease.
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Design
Review
Synthesizes actin isoform mechanisms in disease; leaves open targeted validation in cardiovascular cohorts.
Actin is a highly conserved and fundamental protein in eukaryotes and participates in a broad spectrum of cellular functions. Cells maintain a conserved ratio of actin isoforms, with muscle and non-muscle actins representing the main actin isoforms in muscle and non-muscle cells, respectively. Actin isoforms have specific and redundant functional roles and display different biochemistries, cellular localization, and interactions with myosins and actin-binding proteins. Understanding the specific roles of actin isoforms from the structural and functional perspective is crucial for elucidating the intricacies of cytoskeletal dynamics and regulation and their implications in health and disease. Here, we review how the structure contributes to the functional mechanisms of actin isoforms with a special emphasis on the questions of how post-translational modifications and disease-linked mutations affect actin isoforms biochemistry, function, and interaction with actin-binding proteins and myosin motors.
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Heissler et al. (2024) reported a review. This review summarizes how the structure of actin isoforms contributes to their functional mechanisms, including the effects of post-translational modifications and disease-linked mutations.
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