Mechanotransduction in distinct F-actin architectures: a novel molecular tension sensor revealing cellular mechanical anisotropy

Ting Liang, Bin Li
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Abstract

Mechanotransduction is essential for cell fate and behavior, and F-actin plays a key role in the generation and transmission of molecular forces. A recent study published in Nature Communication presented a novel high-precision molecular tension measurement method using a Förster resonance energy transfer–based tension sensor with separated load-bearing function within distinct F-actin structures, and demonstrated that cellular mechanical anisotropy depends on cell shape, loading direction, and magnitude.

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不同 F-肌动蛋白结构中的机械传导:揭示细胞机械各向异性的新型分子张力传感器
机械传导对细胞的命运和行为至关重要,而 F-肌动蛋白在分子力的产生和传递中起着关键作用。最近发表在《自然-通讯》(Nature Communication)上的一项研究介绍了一种新型高精度分子张力测量方法,该方法使用了基于佛斯特共振能量转移的张力传感器,该传感器在不同的 F-actin 结构中具有分离的承载功能,并证明细胞机械各向异性取决于细胞形状、加载方向和幅度。
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