[The filamin in cell signaling]

Prior research has established that filamins are actin-binding proteins with structural roles in the cytoskeleton. It was already known that these proteins organize actin polymers into orthogonal networks. However, the extent of their involvement in intracellular signaling remained unclear. This uncertainty motivated further investigation into their multifunctional roles. No prior work had resolved how filamins might act as scaffolds for signaling complexes. The gap in understanding prompted a synthesis of recent findings. This review approach aims to clarify how filamins contribute to signal transduction. The literature suggests filamins may mediate signaling through cytoskeletal reorganization.

This review approach seeks to synthesize current evidence on filamin functions. The specific problem is understanding how filamins contribute to both structural and signaling roles. The motivation stems from gaps in knowledge about their signaling mechanisms. The study aims to integrate findings on filamin's structural and regulatory roles. It focuses on how filamins might serve as signaling scaffolds. The authors aim to highlight connections between cytoskeletal dynamics and intracellular signaling. They seek to clarify filamin's role in transmembrane receptor interactions. The review approach also examines filamin's nuclear translocation and signaling implications.

The review approach synthesizes published studies on filamin structure and function. It draws from experimental data on actin polymer organization and signaling. The authors analyze how filamins attach to transmembrane receptors. They examine evidence for filamin's role in actin-myosin regulation. The review includes findings on filamin's interaction with transcription factors. It investigates the C-terminal domain's role in nuclear translocation. The approach integrates data on calpain cleavage and androgen receptor binding. The authors assess how cytoskeletal reorganization may mediate signaling.

Filamins organize actin polymers into orthogonal networks, forming three-dimensional scaffolding. They attach actin filaments to transmembrane receptors, influencing cell signaling. Filamins regulate actin-myosin interactions and actin assembly processes. The proteins also serve as scaffolds for signaling protein complexes. Filamins interact with transcription factors, suggesting roles in signal transduction. The C-terminal end binds to androgen receptors and may translocate to the nucleus. Calpain cleavage facilitates this nuclear translocation. The findings suggest cytoskeletal reorganization may mediate intracellular signaling.

The synthesis of reviewed data suggests filamins may mediate intracellular signaling through cytoskeletal reorganization. Filamins appear to function as scaffolds for signaling protein complexes. Their role in transmembrane receptor interactions is highlighted. The C-terminal domain's interaction with androgen receptors is noted. Nuclear translocation via calpain cleavage is a proposed mechanism. The authors suggest filamins may link cytoskeletal dynamics to signal transduction. Their findings trace to claims about filamin's dual structural and signaling roles. The review approach emphasizes the need for further study on filamin signaling mechanisms.