Abstract

A random Bernoulli process with continuous time and a finite number of states (random events) is proposed. The process is obtained by two mutually complementary methods - directly from the Poisson process with an intensity parameter that depends on time and methods of queuing theory, from a queuing system with two parameters. In the first case, the process was formalized on a probability space with measure, as a measurable function of time. The intensity of the Poisson process was considered as a measure. The Bernoulli process for each fixed time was obtained as a conditional distribution from a suitable Poisson distribution. The parameter of the Poisson distribution was determined from the differential equation, in the formulation of which the approximation of the Bernoulli formula by the Poisson formula was essentially used. In the second method, standard methods of queuing theory were used. A two- parameter queuing model was formulated in which for all customer flows the time between occurrence of neighboring customers was a random value satisfying the exponential law. The model was formalized by a system of differential equations, whose analytical solution represented the continuous-time Bernoulli process. In finding solutions, the method of generating functions was used. It is of interest to derive the Bernoulli process both from the probability space constructed for the Poisson process and from the queuing theory model. The authors believe that the proposed process can be generalized to a wider class of functions than that used in the work, down to measurable ones. The possibilities for the practical application of the continuous-time Bernoulli process will undoubtedly be expanded, since its discrete analog is well known in many fields of science and technology.

Highlights

  • Mathematical modeling based on the methods of the theory of random processes is very actively used in the study and analysis of the functioning of real objects of varying complexity

  • A Poisson process with a state space defined on a probability space is a measurable function defined on the set of all countable subsets of the Borel set

  • A probability space is defined on which a real random variable is given that is a measurable function associated with the theory of a measure that has a Poisson distribution

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Summary

Introduction

Mathematical modeling based on the methods of the theory of random processes is very actively used in the study and analysis of the functioning of real objects of varying complexity. Stochastic modeling is applied to objects, usually associated with randomness, but they are used in research, even deterministic real objects, using randomization This often leads to more effective results than traditional mathematical models of the exact sciences can provide. Analytical solutions, exist, but are found, basically, by approximate methods (in real time in the presence of high-speed computing tools). This is often due to the lack of a special need to look for exact solutions, since private, target problems that are not directly related to mathematics are being studied.

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