Journal of Applied Probability · 1977 · 49 citations · 7 references
Veterinary MedicineMathematicsInfectious Disease EpidemiologyProbability TheoryStochastic ProcessesDisease SpreadInfectious Disease DynamicsMarkov ProcessesRandom WalksStochastic NetworksTransmission DynamicsEpidemic ModelsEpidemic SpreadingEpidemic Spreading ModelsRandom Graph ModelsRandom Graph ProcessesRandom Graph TheoryRandom GraphsStochastic Epidemic Models
A random graph is a collection of n points and n directed arcs: a directed arc goes equiprobably from each point to one of ( n – 1) other points. m points are initially ‘infected'. We consider several schemes of epidemic process, e.g. when the infection is delivered according to arc direction. We prove that the probability of infecting all the n points with m = 1 is ∼ e / n , when n → ∞ ; another result is that m = o ( √ n ) cannot infect an essential part of the graph (having the size of O ( n )). Possible applications of the models to real world phenomena are briefly discussed.
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An introduction to percolation theory
V. K. S. Shante, Scott Kirkpatrick · Advances In Physics · 1971 · 2.5K citations
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