Heterogeneous Malware Spread Process in Star Network
Title | Heterogeneous Malware Spread Process in Star Network |
Publication Type | Conference Paper |
Year of Publication | 2017 |
Authors | Jiao, L., Yin, H., Guo, D., Lyu, Y. |
Conference Name | 2017 IEEE 37th International Conference on Distributed Computing Systems Workshops (ICDCSW) |
Date Published | jun |
ISBN Number | 978-1-5386-3292-5 |
Keywords | Analytical models, Artificial neural networks, Computational modeling, computer viruses, Curing, epidemic threshold, extended N-intertwined model, finite size graph, graph theory, heterogeneous malware spread process, heterogeneous SIS model, heterogeneous virus spread, Human Behavior, infected nodes, malware analysis, malware spread process, meta-stable state fraction, Metrics, network theory (graphs), privacy, pubcrawl, resilience, Resiliency, Silicon, simulation, SIS model, star network, steady state infection, Steady-state |
Abstract | The heterogeneous SIS model for virus spread in any finite size graph characterizes the influence of factors of SIS model and could be analyzed by the extended N-Intertwined model introduced in [1]. We specifically focus on the heterogeneous virus spread in the star network in this paper. The epidemic threshold and the average meta-stable state fraction of infected nodes are derived for virus spread in the star network. Our results illustrate the effect of the factors of SIS model on the steady state infection. |
URL | https://ieeexplore.ieee.org/document/7979827/ |
DOI | 10.1109/ICDCSW.2017.35 |
Citation Key | jiao_heterogeneous_2017 |
- Malware Analysis
- Steady-state
- steady state infection
- star network
- SIS model
- simulation
- Silicon
- Resiliency
- resilience
- pubcrawl
- privacy
- network theory (graphs)
- Metrics
- meta-stable state fraction
- malware spread process
- Analytical models
- infected nodes
- Human behavior
- heterogeneous virus spread
- heterogeneous SIS model
- heterogeneous malware spread process
- graph theory
- finite size graph
- extended N-intertwined model
- epidemic threshold
- Curing
- computer viruses
- Computational modeling
- Artificial Neural Networks