2002 · 790 citations · 21 references
Veterinary MedicineComputer ScienceEpidemiologyInfectious Disease EpidemiologyVirologyInfectious Disease DynamicsTransmission DynamicsViral EpidemiologyVirus EpidemiologyEpidemic SpreadingEpidemic Spreading ModelsEpidemic Threshold AnalysisImperfect DefenseInfectious Disease ModelsMathematical Modeling Of EpidemicsMathematical Modeling Of Viral SpreadViral Transmission Dynamics
The strong analogy between biological viruses and their computational counterparts has motivated the authors to adapt the techniques of mathematical epidemiology to the study of computer virus propagation. In order to allow for the most general patterns of program sharing, a standard epidemiological model is extended by placing it on a directed graph and a combination of analysis and simulation is used to study its behavior. The conditions under which epidemics are likely to occur are determined, and, in cases where they do, the dynamics of the expected number of infected individuals are examined as a function of time. It is concluded that an imperfect defense against computer viruses can still be highly effective in preventing their widespread proliferation, provided that the infection rate does not exceed a well-defined critical epidemic threshold.< <ETX xmlns:mml="http://www.w3.org/1998/Math/MathML" xmlns:xlink="http://www.w3.org/1999/xlink">></ETX>
21
Theory of Self-Reproducing Automata
Jacob T. Schwartz, John von Neumann, Arthur W. Burks · Mathematics of Computation · 1967 · 5.5K citations
Fundamentals of Statistical and Thermal Physics
F. Reif, H. L. Scott · American Journal of Physics · 1998 · 2.6K citations
Universality and complexity in cellular automata
Stephen Wolfram · Physica D Nonlinear Phenomena · 1984 · 1.9K citations
Computing, Mathematics, Algorithms +11