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Supplementary data for the paper titled Network classification-based structural analysis of real networks and their model-generated counterparts.

License: MIT License

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complex-networks's Introduction

arXiv

Network classification-based structural analysis of real networks and their model-generated counterparts

Supplementary data for the paper: Nagy, M., & Molontay, R. (2022). Network classification-based structural analysis of real networks and their model-generated counterparts. Network Science, 1-24.

How to Cite

@article{nagy2022network,
  title={Network classification-based structural analysis of real networks and their model-generated counterparts},
  author={Nagy, Marcell and Molontay, Roland},
  journal={Network Science},
  pages={1--24},
  year={2022},
  publisher={Cambridge University Press}
}

Source

The graphs are collected from the following sources:

The collected networks canbe found in the networks folder

Summary of Networks

Domain Description Range of network size Number of networks
Brain Human and animal connectomes 50-2,995
(avg: 946)
100
Cheminformatics Protein-protein (enzyme) interaction networks 44-125
(avg: 55)
100
Food What-eats-what, consumer-resource networks 19-1,500
(avg: 118)
100
Infrastructural Transportation (metro, bus, road, airline) and distribution networks (power and water) 39-40K
(avg: 4,562)
68
Social Facebook, Twitter and collaboration networks 85-34K
(avg: 5,183)
118
Web Pieces of the World Wide Web 146-16K
(avg: 4,488)
14

Graph Measurements

The data folder contains a spreadsheet that contains the calculated metrics of the 482 real networks.

The calculated metrics are the following:

  • assortativity,
  • average clustering coefficient,
  • average degree,
  • average path length,
  • density,
  • global clustering coefficient,
  • four interval degree probabilities introduced in this paper,
  • largest eigenvector centrality,
  • maximum degree,
  • maximum edge betweenness centrality,
  • maximum vertex betweenness centrality,
  • number of edges,
  • number of nodes,
  • pseudo diameter

A detailed description of the dataset and the metrics can be found in Network classification-based structural analysis of real networks and their model-generated counterparts and in Data-driven Analysis of Complex Networks and their Model-generated Counterparts

Supplementary material

Analysis of network models

According to the Random Forest classifier, when the goal is to predict whether the network is real or model-generated, the most distinguishing graph metrics are the normalized average path length, the average clustering coefficient, the maximum eigenvector centrality, and the assortativity.

The following figures show the structural properties of the real networks that the network models cannot capture. In other words, the distribution of the most distinguishing graph metrics of the real networks and the model-generated graphs.

brain chem food infra social web

Stability of the networks

Since the network models generate random graphs, the question naturally comes up: How robust are the graph metrics of the fitted models with fixed parameters? We have analyzed the sensitivity of the models on six different-sized graphs from different domains, the chosen networks are detailed in the table below. For each of these six real networks, we fitted each network model and then generated 30 graph instances with each model using the previously fitted parameter settings. For the sensitivity analysis, we studied the distribution of the graph measurements of the graph instances.

Domain Name Size Number of edges
Social ca-AstroPh (Leskovec et al., 2007) 17,903 196,972
Web Darkweb (Griffith et al., 2017) 7,178 24,879
Brain Jung2015 (Kiar, 2016) 2,989 31,548
Infrastructure ABN (Chatterjee et al., 2016) 1,103 2,150
Food Srep (Dunne et al., 2016) 235 1,743
Cheminformatics Enzymes-g292 (Canning et al., 2018) 60 100

Social network (ca-AstroPh)

social

Web network (Darkweb)

web

Brain network (Jung2015)

brain

Infrastructure network (ABN)

inf

Food network (Srep)

food

Cheminformatics network (Enzymes-g292)

chem

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