Analysis of Heterogeneous Complex Networks Using the Degree of Diffusion

Eman AlDwaisan, Maytham Safar, Khaled Mahdi
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引用次数: 1

Abstract

Diffusion is the process of spreading information throughout a network. The degree of diffusion a has been used to measure the diffusion and the adoption rates of different complex networks. It is defined as the percentage between the adopters and non-adopters in a network during the diffusion process. In our previous work [1], we only studied the degree of diffusion for directed networks. In this paper, we extend our previous work by using the degree of diffusion to calculate the adoption rate and applied it on two different directed real networks, Caenorhabditis elegans worm's neural network and Positive sentiment social network, then we compared our results with the results obtained in [1]. In addition, we extended the work by applying the same technique on generated undirected networks: random network, scale-free network, and small-world network. They were also applied on three undirected real networks, dolphin social network, yeast protein-protein network, and US power grid network. The results showed that the degree of diffusion a of undirected networks is different than directed networks. For instance, the average number of degree of diffusion was 148 for directed random network where it was 1.9705 for undirected random network. All the obtained results showed that in real networks, randomization does not exist. The behavior of these networks is determined based on the network's members and the interactions between them. Therefore, most of the real networks should be classified as small-world, scale-free networks, or what we defined as small-world random, small-world scale-free networks.
利用扩散度分析异构复杂网络
扩散是指信息在网络中传播的过程。用扩散度a来衡量不同复杂网络的扩散和采用率。它被定义为在扩散过程中网络中采用者和非采用者之间的百分比。在我们之前的工作[1]中,我们只研究了有向网络的扩散程度。在本文中,我们扩展了之前的工作,使用扩散度来计算采用率,并将其应用于两个不同的有向真实网络,秀丽隐杆线虫的神经网络和Positive sentiment social network,然后将我们的结果与文献[1]的结果进行比较。此外,我们通过将相同的技术应用于生成的无向网络来扩展工作:随机网络,无标度网络和小世界网络。它们还应用于三个无向真实网络,海豚社交网络,酵母蛋白-蛋白质网络和美国电网网络。结果表明,无向网络的扩散程度a与有向网络不同。例如,有向随机网络的平均扩散度为148,无向随机网络的平均扩散度为1.9705。结果表明,在真实网络中,随机化是不存在的。这些网络的行为是由网络成员和他们之间的相互作用决定的。因此,大多数真实网络应该被归类为小世界、无标度网络,或者我们定义的小世界随机、小世界无标度网络。
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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