复杂系统与人工生命:十年综述

Thomas Mcatee, Claudia Szabo
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引用次数: 0

摘要

人工生命模型和算法由自然和生物过程和现象提供信息。人工生命特别适用于模拟大型复杂系统,如大规模生态系统或社会网络,其中系统实体之间的相互作用可能会产生紧急行为。尽管复杂系统日益普及和无处不在,但人工生命方法在复杂系统建模及其跨复杂系统领域的应用中所考虑的程度仍不清楚。为了更好地理解人工生命和复杂系统之间的重叠,我们对近十年来以复杂系统为重点的人工生命研究进行了系统的文献综述。我们对所有相关数据库进行了自动搜索,确定了538篇初始论文,其中194篇在候选集中,产生了115篇主要研究。我们的研究结果表明,三个最常见的应用领域是仿真,其次是社会建模和生物建模。我们发现了大量的范例,可以大致分为三大类,即生物、社会和混合。我们确定了用于生成最常见的复杂系统属性的人工生命范式,以及一些对人工生命和复杂系统建模的增长至关重要的研究挑战。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Complex Systems and Artificial Life: A Decade’s Overview
Artificial Life models and algorithms are informed by natural and biological processes and phenomena. Artificial Life finds particular use in simulating large, complex systems such as large scale ecosystems or social networks, where the interaction between system entities may give rise to emergent behaviours. Despite the increasing popularity and ubiquitous nature of complex systems, the extent of which artificial life approaches are considered in complex systems modelling and their application across complex systems domains is still unclear. To better understand the overlap between artificial life and complex systems, we conducted a systematic literature review of last decade’s artificial life research that had a complex system focus. We performed an automated search of all relevant databases and identified 538 initial papers, with 194 in the candidate set, resulting in 115 primary studies. Our results show that the three most frequent application domains are simulation, followed by social modelling, and biological modelling. We find a plethora of paradigms that can be broadly classified into three main categories, namely, biological, social, and hybrid. We identify the artificial life paradigms that are used to generate the most common complex systems properties as well as a number of research challenges that are critical for the growth of both artificial life and complex systems modelling.
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