Biomolecular condensates with complex architectures via controlled nucleation

Nadia A. Erkamp, Madelief A. M. Verwiel, Daoyuan Qian, Tomas Sneideris, Frans A. Spaepen, David A. Weitz, Jan C. M. van Hest, Tuomas P. J. Knowles
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Abstract

The structure and function of biomolecular condensates are closely related. However, many studies and applications of this relationship are prevented because controlling the mesoscale architecture of condensates can be difficult. Here we introduce a way to create custom multiphase architectures by nucleating new droplets in condensates. This nucleation occurs due to limited diffusion in the dense condensates and a composition change forced upon the system by changing the experimental conditions. The designed architectures are transient states created out of equilibrium. We provide a detailed method for understanding and designing a range of condensate architectures. Access to these long-lived complex architectures will enable researchers to incorporate increasingly sophisticated compartmentalization and functionality in condensates. This general strategy for creating complex structured condensates out of equilibrium may also provide insights into the structure of condensates in cells. Biomolecular condensates can contain multiple phases. The number of droplets of each phase and their location give the condensate a certain architecture. Here the authors present a method to create a range of transient architectures in biomolecular condensates, making the architecture or interfacial area controllable design variables in experiments.

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通过受控成核实现具有复杂结构的生物分子凝聚物
生物分子凝聚态的结构和功能密切相关。然而,由于难以控制冷凝物的中尺度结构,因此阻碍了对这种关系的许多研究和应用。在这里,我们介绍了一种通过在凝结物中核化新液滴来创建定制多相结构的方法。这种成核是由于致密冷凝物中的有限扩散以及实验条件的改变迫使系统发生了成分变化。所设计的结构是在平衡状态下产生的瞬态。我们提供了了解和设计一系列凝聚态结构的详细方法。获得这些长寿命的复杂结构将使研究人员能够在凝结物中加入越来越复杂的分隔和功能。这种在非平衡状态下创造复杂结构凝聚态的一般策略,也可为研究细胞中的凝聚态结构提供启示。生物分子凝聚态可包含多个阶段。各相液滴的数量及其位置赋予了冷凝物一定的结构。作者在此介绍了一种在生物分子凝聚态中创建一系列瞬态结构的方法,使结构或界面区域成为实验中可控的设计变量。
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