Magnetic Activation of Spherical Nucleic Acids for the Remote Control of Synthetic Cells

Ellen Parkes, Assala Al Samad, Giacomo Mazzotti, Charlie Newell, Brian Ng, Amy Radford, Michael J Booth
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Abstract

The advancement of synthetic cells as drug delivery devices hinges on the development of targeting strategies, in particular the controlled synthesis of biomolecules in-situ using a deeply penetrative stimulus. To address this, we have designed spherical nucleic acids comprising DNA promoter sequences decorating magnetic nanoparticle cores. By harnessing the heat dissipated from magnetic hyperthermia (a clinically-approved anticancer therapy) we tightly controlled cell-free protein synthesis. We then deployed a tissue phantom that is impenetrable by current activation methods to demonstrate the potential of this technology for the remote control of synthetic cells using deeply tissue-penetrating magnetic fields. This paves the way for targeting and controlling the in-situ synthesis of biomolecules deep within the body.
磁激活球形核酸以远程控制合成细胞
合成细胞作为药物输送设备的发展取决于靶向策略的开发,特别是利用深度穿透性刺激在原位控制合成生物分子。为此,我们设计了由 DNA 启动子序列组成的球形核酸,并以磁性纳米粒子为核心进行装饰。通过利用磁热效应(一种临床批准的抗癌疗法)产生的热量,我们严格控制了无细胞蛋白质合成。然后,我们部署了一个目前的活化方法无法穿透的组织模型,展示了这项技术利用深度穿透组织的磁场远程控制合成细胞的潜力。这为瞄准和控制体内深层生物分子的原位合成铺平了道路。
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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