Modeling and artificial intelligence approaches to enzyme systems.

Federation proceedings Pub Date : 1987-06-01
D Garfinkel, C A Kulikowski, V W Soo, J Maclay, M J Achs
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Abstract

Modeling is a means of formulating and testing complex hypotheses. Useful modeling is now possible with biological laboratory microcomputers with which experimenters feel comfortable. Artificial intelligence (AI) is sufficiently similar to modeling that AI techniques, now becoming usable on microcomputers, are applicable to modeling. Microcomputer and AI applications to physiological system studies with multienzyme models and with kinetic models of isolated enzymes are described. Using an IBM PC microcomputer, we have been able to fit kinetic enzyme models; to extend this process to design kinetic experiments by determining the optimal conditions; and to construct an enzyme (hexokinase) kinetics data base. We have also used a PC to do most of the constructing of complex multienzyme models, initially with small simple BASIC programs; alternative methods with standard spreadsheet or data base programs have been defined. Formulating and solving differential equations in appropriate representational languages, and sensitivity analysis, are soon likely to be feasible with PCs. Much of the modeling process can be stated in terms of AI expert systems, using sets of rules for fitting and evaluating models and designing further experiments. AI techniques also permit critiquing and evaluating the data, experiments, and hypotheses being modeled, and can be extended to supervise the calculations involved.

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酶系统的建模和人工智能方法。
建模是形成和检验复杂假设的一种手段。利用生物实验室的微型计算机,现在可以进行有用的建模,使实验人员感到舒适。人工智能(AI)与建模非常相似,人工智能技术现在可以在微电脑上使用,也适用于建模。介绍了多酶模型和分离酶动力学模型在生理系统研究中的应用。利用IBM PC微型计算机,我们已经能够拟合动力学酶模型;通过确定最佳条件,将这一过程扩展到设计动力学实验;并构建酶(己糖激酶)动力学数据库。我们还使用PC完成了大部分复杂多酶模型的构建,最初是用简单的BASIC程序;已经定义了标准电子表格或数据库程序的替代方法。用适当的表示语言表述和求解微分方程,以及灵敏度分析,很快就可能在pc上实现。许多建模过程可以用人工智能专家系统来描述,使用一组规则来拟合和评估模型,并设计进一步的实验。人工智能技术还允许对正在建模的数据、实验和假设进行批评和评估,并可以扩展到监督所涉及的计算。
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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