生命科学化学系统

K. Nikolaev, Nikolai V. Ryzhkov, C. Gershenson, E. Skorb
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引用次数: 1

摘要

使用具有反馈控制的动态、自适应材料是过去十年的一种趋势。生命科学和医学需要从分子到宏观甚至机器人的各种组件的受控和响应组装的材料。本综述的主要思想是利用合成系统作为促进化学和生物材料整合的调节网络。合成系统是受生物化学调节网络的启发,帮助合成材料适应环境并与生物物质协同相互作用。实现这个概念的第一步是设计简单的模型系统。简单性意味着系统应该包含最少数量的组件,但应该是健壮的和可持续的,可以通过逻辑操作和反馈循环来执行所需的功能。在这里,我们提出了一些特定的功能稳健系统的例子:分区信号级联,光诱导化学梯度和先进的仿生混合有机-无机材料的计算,以及化学-生物系统的自我调节。讨论了这些例子所面临的主要挑战,并展望了化学系统逻辑运算的未来前景。
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Chemical Systems for Life Science
The use of dynamic, adaptive materials with feedback control is a tendency of the past decade. Life sciences and medicine require materials with the controlled and responsive assembly of various components on the scales from molecular to macroscopic and even robotics. The main idea of this review is the use of synthetic systems as regulatory networks that facilitate the integration of chemical and biological materials. The synthetic systems, which are inspired by biochemical regulatory networks, help synthetic material to adapt to environmentand to interact with living matter cooperatively. The first step in realizing this concept is designing simple model systems. The simplicity means that the system should contain a minimal number of components but should be robust and sustainable to perform the required functions through logic operations and feedback loops. Here we suggest specific examples of robust systems for the selected functionality: compartmentalized signaling cascades, computation with light-induced chemical gradients andadvanced biomimetic mixed organic-inorganic materials, and self-regulation in chemical-biological systems. The main challenges for the given examples are discussed, and future prospects of logic operation with chemical systems are provided.
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