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作为微型机器人的微生物细胞:从药物递送 to 先进生物传感器。 注:原文中“to”后面的“Advanced Biosensors”翻译时保留英文更合适,因为这里可能是特定的术语或有特定指代,直接翻译可能不准确,当然如果有更多背景信息能确定更准确的翻译更好。

Microbial Cells as a Microrobots: From Drug Delivery to Advanced Biosensors.

作者信息

Gotovtsev Pavel

机构信息

National Research Center "Kurchatov Institute", Biotechnology and Bioenergy Department, Akademika Kurchatova pl. 1, 123182 Moscow, Russia.

Moscow Institute of Physics and Technology, National Research University, 9 Institutskiy per., 141701 Moscow, Russia.

出版信息

Biomimetics (Basel). 2023 Mar 7;8(1):109. doi: 10.3390/biomimetics8010109.

Abstract

The presented review focused on the microbial cell based system. This approach is based on the application of microorganisms as the main part of a robot that is responsible for the motility, cargo shipping, and in some cases, the production of useful chemicals. Living cells in such microrobots have both advantages and disadvantages. Regarding the advantages, it is necessary to mention the motility of cells, which can be natural chemotaxis or phototaxis, depending on the organism. There are approaches to make cells magnetotactic by adding nanoparticles to their surface. Today, the results of the development of such microrobots have been widely discussed. It has been shown that there is a possibility of combining different types of taxis to enhance the control level of the microrobots based on the microorganisms' cells and the efficiency of the solving task. Another advantage is the possibility of applying the whole potential of synthetic biology to make the behavior of the cells more controllable and complex. Biosynthesis of the cargo, advanced sensing, on/off switches, and other promising approaches are discussed within the context of the application for the microrobots. Thus, a synthetic biology application offers significant perspectives on microbial cell based microrobot development. Disadvantages that follow from the nature of microbial cells such as the number of external factors influence the cells, potential immune reaction, etc. They provide several limitations in the application, but do not decrease the bright perspectives of microrobots based on the cells of the microorganisms.

摘要

本文综述聚焦于基于微生物细胞的系统。这种方法是将微生物用作机器人的主要组成部分,该机器人负责运动、货物运输,在某些情况下还负责有用化学品的生产。此类微型机器人中的活细胞既有优点也有缺点。关于优点,有必要提及细胞的运动性,这可以是自然趋化性或趋光性,具体取决于生物体。存在通过在细胞表面添加纳米颗粒使其具有磁趋性的方法。如今,此类微型机器人的开发成果已得到广泛讨论。结果表明,有可能结合不同类型的趋性,以提高基于微生物细胞的微型机器人的控制水平和解决任务的效率。另一个优点是有可能应用合成生物学的全部潜力,使细胞行为更可控且更复杂。在微型机器人的应用背景下,讨论了货物的生物合成、先进传感、开关等其他有前景的方法。因此,合成生物学应用为基于微生物细胞的微型机器人开发提供了重要前景。微生物细胞的性质带来的缺点,如外部因素对细胞的影响数量、潜在的免疫反应等。它们在应用中提供了一些限制,但并未降低基于微生物细胞的微型机器人的光明前景。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/478f/10046805/7c57800c0f8f/biomimetics-08-00109-g001.jpg

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