Abstract
Complex networks have been studied for a long time in order to understand various real-world complex systems around us. Complex systems, such as the WWW, the movie-actor network, social networks and neural networks, are systems made of many non-identical elements connected by diverse interactions. The study of the network topology is one of important issues on the way of exploring such systems, because the structure always affects the system function. Traditionally, these systems have been modeled as either completely ordered graphs or completely random graphs. Until recently, some surprising empirical results in the field of complex networks, like 19 clicks of the web s diameter and 6 degrees of separation in social networks, show us the small-world phenomena existing in some large sparse networks. This finding motivates the interest in small-world networks. The objective of the project is to study the properties of small-world networks and the network evolution over time via experiments on a movie actor collaboration network; to find their different characteristics by comparing small-world networks with random networks; and to analyze the factors that result in such differences. The properties of small-world networks discussed here include small diameter, sparseness, clustering, giant component, power-law degree distribution and short path discovery. Also, four existing network models are studied in this project: Watts-Strogatz Small-world model, Erd s R nyi Random-graph model, A.-L. Barab si Scale-free model and Jon Kleinberg Small-world model.
Publication Date
2006
Document Type
Master's Project
Student Type
Graduate
Department, Program, or Center
Computer Science (GCCIS)
Advisor
Radziszowski, Stanislaw - Chair
Advisor/Committee Member
Gaborski, Roger
Advisor/Committee Member
Homan, Christopher
Recommended Citation
Hu, Min, "Exploring the topology of small-world networks" (2006). Thesis. Rochester Institute of Technology. Accessed from
https://repository.rit.edu/theses/6892
Campus
RIT – Main Campus
Comments
Note: imported from RIT’s Digital Media Library running on DSpace to RIT Scholar Works in February 2013.