PCM Computational Applications, Universidad Nacional de Colombia, Manizales, Colombia.
Departamento de Física y Matemáticas, Universidad Autónoma Manizales, Manizales, Colombia.
Sci Rep. 2021 Mar 11;11(1):5721. doi: 10.1038/s41598-021-85041-8.
Two computational methods based on the Ising model were implemented for studying temporal dynamic in co-authorship networks: an interpretative for real networks and another for simulation via Monte Carlo. The objective of simulation networks is to evaluate if the Ising model describes in similar way the dynamic of the network and of the magnetic system, so that it can be found a generalized explanation to the behaviours observed in real networks. The scientific papers used for building the real networks were acquired from WoS core collection. The variables for each record took into account bibliographic references. The search equation for each network considered specific topics trying to obtain an advanced temporal evolution in terms of the addition of new nodes; that means 3 steps, a time to reach the interest of the scientific community, a gradual increase until reaching a peak and finally, a decreasing trend by losing of novelty. It is possible to conclude that both methods are consistent with each other, showing that the Ising model can predict behaviours such as the number and size of communities (or domains) according to the temporal distribution of new nodes.
一种是对真实网络的解释,另一种是通过蒙特卡罗模拟。模拟网络的目的是评估伊辛模型是否以相似的方式描述网络和磁系统的动态,以便找到对真实网络中观察到的行为的一般化解释。用于构建真实网络的科学论文是从 WoS 核心集获取的。每个记录的变量都考虑了参考文献。对于每个网络的搜索方程都考虑了特定的主题,试图在添加新节点方面获得更先进的时间演化;也就是说,分三个阶段,达到科学界关注的时间,逐渐增加,直到达到峰值,最后,由于新颖性的丧失而呈下降趋势。可以得出结论,这两种方法是相互一致的,表明伊辛模型可以根据新节点的时间分布预测诸如社区(或域)的数量和大小等行为。