Bo-Tao Ji, He-Tong Pan, Zhi-Gang Qian, Xiao-Xia Xia
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引用次数: 0
Abstract
Distinct membraneless organelles within cells collaborate closely to organize crucial functions. However, biosynthetic communicating membraneless organelles have yet to be created. Here we report a binary population of membraneless compartments capable of coexistence, biological communication and controllable feedback under cellular environmental conditions. The compartment consortia emerge from two orthogonally phase-separating proteins in a cell-free expression system. Their appearance can be programmed in time and order for on-demand delivery of molecules. In particular, the consortia can sense, process and deliver functional protein cargo in response to a protease message or a DNA message that encodes the protease. Such DNA-based molecular programs can be further harnessed by installing a feedback loop that controls the information flow at the messenger RNA level. These results contribute to understanding crosstalk among membraneless organelles and provide a design principle that can guide construction of functional compartment consortia.
细胞内不同的无膜细胞器密切协作,发挥重要功能。然而,能进行生物合成交流的无膜细胞器尚未问世。在这里,我们报告了一种能够在细胞环境条件下共存、进行生物交流和可控反馈的二元无膜小室群。在无细胞表达系统中,两个正交相分离的蛋白质产生了小室联合体。它们的出现可以按时间和顺序进行编程,以便按需输送分子。特别是,联合体可以根据蛋白酶信息或编码蛋白酶的 DNA 信息来感知、处理和输送功能性蛋白质货物。这种基于 DNA 的分子程序可以通过安装一个反馈环来进一步利用,该反馈环在信使 RNA 水平上控制信息流。这些结果有助于理解无膜细胞器之间的串扰,并提供了一种可指导构建功能区联合体的设计原则。
期刊介绍:
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