The Underexplored Mechanobiology of Lamin A Biogenesis and Homeostasis

Lamin A is a major contributor to nuclear mechanics and an important mediator of mechanotransduction. While its role in regulating nuclear architecture is well established, considerably less attention has been given to how mechanical cues regulate lamin A itself. Here, we review current evidence demonstrating that lamin A homeostasis is dynamically controlled by mechanical stimulation through transcriptional, translational, and post-translational mechanisms regulating protein abundance, stability, and turnover. We further discuss emerging evidence suggesting that prelamin A maturation, a highly conserved multistep processing pathway, may represent a previously unrecognized mechanosensitive regulatory node. Recent studies challenge the canonical model of prelamin A processing and raise the possibility of alternative maturation pathways with important implications for lamin A homeostasis. We highlight current evidence, unresolved questions, and future directions, proposing that mechanical regulation of lamin A biogenesis represents an underexplored dimension of lamin mechanobiology with broad implications for development, aging, laminopathies, and mechanically driven diseases.

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Publication Details

Journal
Biology of the Cell
Published
2026-09-30
DOI
https://doi.org/10.1111/boc.70080
Primary Topic
Nuclear Structure and Function
Type
article
Field-Weighted Citation Impact
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article

The Underexplored Mechanobiology of Lamin A Biogenesis and Homeostasis

Monika E. Dolega, Sandrine Fraboulet, Omar Aldarawish
Biology of the Cell
Nuclear Structure and Function
article

The Underexplored Mechanobiology of Lamin A Biogenesis and Homeostasis

Monika E. Dolega, Sandrine Fraboulet, Omar Aldarawish
article en

Abstract

Lamin A is a major contributor to nuclear mechanics and an important mediator of mechanotransduction. While its role in regulating nuclear architecture is well established, considerably less attention has been given to how mechanical cues regulate lamin A itself. Here, we review current evidence demonstrating that lamin A homeostasis is dynamically controlled by mechanical stimulation through transcriptional, translational, and post-translational mechanisms regulating protein abundance, stability, and turnover. We further discuss emerging evidence suggesting that prelamin A maturation, a highly conserved multistep processing pathway, may represent a previously unrecognized mechanosensitive regulatory node. Recent studies challenge the canonical model of prelamin A processing and raise the possibility of alternative maturation pathways with important implications for lamin A homeostasis. We highlight current evidence, unresolved questions, and future directions, proposing that mechanical regulation of lamin A biogenesis represents an underexplored dimension of lamin mechanobiology with broad implications for development, aging, laminopathies, and mechanically driven diseases.

Biology of the CellVol. 118(10)
Centre National de la Recherche Scientifique (FR), Inserm (FR), Université Grenoble Alpes (FR)
Openalex Percentile: Top 19%
Nuclear Structure and Function
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The Underexplored Mechanobiology of Lamin A Biogenesis and Homeostasis — Monika E. Dolega, Sandrine Fraboulet, et al. · Biology of the Cell (2026) | TGRS Research Map | TGRS