SyNPL: Synthetic Notch pluripotent cell lines to monitor and manipulate cell interactions in vitro and in vivo

Mattias Malaguti, R. P. Migueles, Jennifer Annoh, Daina Sadurska, G. Blin, S. Lowell
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引用次数: 5

Abstract

Cell-cell interactions govern differentiation and cell competition in pluripotent cells during early development, but the investigation of such processes is hindered by a lack of efficient analysis tools. Here we introduce SyNPL: clonal pluripotent stem cell lines which employ optimised Synthetic Notch (SynNotch) technology to report cell-cell interactions between engineered “sender” and “receiver” cells in cultured pluripotent cells and chimaeric mouse embryos. A modular design makes it straightforward to adapt the system for programming differentiation decisions non-cell-autonomously in receiver cells in response to direct contact with sender cells. We demonstrate the utility of this system by enforcing neuronal differentiation at the boundary between two cell populations. In summary, we provide a new tool which could be used to identify cell interactions and to profile changes in gene or protein expression that result from direct cell-cell contact with defined cell populations in culture and in early embryos, and which can be adapted to generate synthetic patterning of cell fate decisions. SUMMARY STATEMENT Optimised Synthetic Notch circuitry in mouse pluripotent stem cells provides a modular tool to monitor cell-cell interactions and program synthetic patterning of cell fates in culture and in embryos.
SyNPL:合成Notch多能细胞系,用于体外和体内监测和操纵细胞相互作用
在多能细胞早期发育过程中,细胞间相互作用控制着分化和细胞竞争,但由于缺乏有效的分析工具,对这一过程的研究受到阻碍。在这里,我们介绍了SyNPL:克隆多能干细胞系,它采用优化的合成Notch (SynNotch)技术来报告在培养的多能细胞和嵌合小鼠胚胎中工程化的“发送者”和“接受者”细胞之间的细胞间相互作用。模块化设计使其直接适应系统的编程分化决策非细胞自主接收细胞响应与发送细胞的直接接触。我们通过在两个细胞群之间的边界加强神经元分化来证明该系统的实用性。总之,我们提供了一种新的工具,可用于识别细胞相互作用,并描述在培养和早期胚胎中与特定细胞群体直接接触导致的基因或蛋白质表达变化,并且可以适应生成细胞命运决定的合成模式。小鼠多能干细胞中优化的合成Notch电路提供了一个模块化的工具来监测细胞间相互作用,并在培养和胚胎中编程细胞命运的合成模式。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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