Fuzzy logic, an intermediate description level for design and simulation in synthetic biology

Yves Gendrault, M. Madec, V. Wlotzko, C. Lallement, J. Haiech
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引用次数: 5

Abstract

Synthetic biology, or biological engineering, is a new science which may take advantage of the know-how of engineering science in order to build new in-vivo biological functions. The complete design process implies lots of modeling and simulation tasks. The design flow for this technology uses “digital” models at high level of abstraction as well as “analogue” ones at low level. Nevertheless, contrary to electronics, high-level digital descriptions are far away from low-level ones. In this paper, an intermediate modeling level using the principle of fuzzy logic is proposed to fill the gap between high and low abstraction level. The main advantage of this approach is to obtain quantitative simulation results while keeping a behavioral description of mechanisms. This is pointed out through two examples. The first one, encountered in literature, tends to prove that this modeling level is sufficient to obtain reliable results in comparison with the experimental ones. The second one, which is more theoretical, demonstrates the interest of fuzzy logic from a designing point of view.
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模糊逻辑:合成生物学中设计与仿真的中间描述层次
合成生物学或生物工程是一门新的科学,它可以利用工程科学的专有技术来构建新的体内生物功能。完整的设计过程意味着大量的建模和仿真任务。该技术的设计流程在高层次抽象上使用“数字”模型,在低级抽象上使用“模拟”模型。然而,与电子学相反,高级数字描述与低级数字描述相去甚远。本文提出了一种利用模糊逻辑原理的中间建模层来填补高抽象层和低抽象层之间的空白。这种方法的主要优点是在保持机制行为描述的同时获得定量模拟结果。这是通过两个例子指出的。文献中遇到的第一种倾向于证明该建模水平足以获得与实验结果相比较的可靠结果。第二种方法更理论化,从设计的角度展示了模糊逻辑的兴趣。
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