不同类型动力元件驱动的微管动态对准与毫米级涡旋形成

Naoki Kanatani, H. Kojima, K. Oiwa
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引用次数: 0

摘要

长期以来,人们一直需要实验系统来研究生物学中经常观察到的集体运动(鸟群、鱼群、发育过程中的细胞迁移等)。生物物理研究中常用的蛋白质马达的体外运动测定现在满足了上述要求。通过体外运动实验,我们报道了在轴突动力因子亚种驱动下微管的集体运动和涡旋出现,并发现在某些实验条件下,微管的集体运动可以表现为向列有序、毫米尺度的曲流或毫米尺度的涡旋。为了探索引起这种相移的条件,我们检查了动力元件的机械性能对图案形成的影响。
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Dynamic Alignment and Millimeter-scale Vortex Formation of Microtubules Driven by Different Types of Dynein
Experimental systems have long been demanded for the study of collective motion often observed in biology (a flock of birds, a shoal of fish, cell migrations during development etc). In vitro motility assays commonly used in biophysical studies on protein-motors now fulfill the demand described above. Using the in vitro motility assays, we report collective motion and vortex emergence of microtubules (MTs) driven by some subspecies of axonemal dyneins and find that under some experimental conditions, the collective motion of MTs can display nematic order, millimeter-scale meandering streams or millimeter-scale vortices. To explore the conditions causing such phase-shifts, we examine the effects of mechanical properties of dyneins on the pattern formation.
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