Eigen-Optimization on Large Graphs by Edge Manipulation

Author:

Chen Chen1,Tong Hanghang1,Prakash B. Aditya2,Eliassi-Rad Tina3,Faloutsos Michalis4,Faloutsos Christos5

Affiliation:

1. Arizona State University

2. Virginia Tech

3. Rutgers University

4. University of New Mexico, New Mexico, USA

5. Carnegie Mellon University, Pittsburgh, PA

Abstract

Large graphs are prevalent in many applications and enable a variety of information dissemination processes, e.g., meme, virus, and influence propagation. How can we optimize the underlying graph structure to affect the outcome of such dissemination processes in a desired way (e.g., stop a virus propagation, facilitate the propagation of a piece of good idea, etc)? Existing research suggests that the leading eigenvalue of the underlying graph is the key metric in determining the so-called epidemic threshold for a variety of dissemination models. In this paper, we study the problem of how to optimally place a set of edges (e.g., edge deletion and edge addition) to optimize the leading eigenvalue of the underlying graph, so that we can guide the dissemination process in a desired way. We propose effective, scalable algorithms for edge deletion and edge addition, respectively. In addition, we reveal the intrinsic relationship between edge deletion and node deletion problems. Experimental results validate the effectiveness and efficiency of the proposed algorithms.

Funder

Defense Advanced Research Projects Agency

Lawrence Livermore National Laboratory

National Endowment for the Humanities

Oak Ridge National Laboratory

National Science Foundation

Defense Threat Reduction Agency

National Institute for Health Research

Region II University Transportation Center

U.S. Army Research Laboratory

Maryland Procurement Office

Publisher

Association for Computing Machinery (ACM)

Subject

General Computer Science

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