Article | REF: AF600 V1

Simulations and Monte Carlo methods

Authors: Gerardo RUBINO, Bruno TUFFIN

Publication date: October 10, 2007, Review date: November 19, 2019

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ABSTRACT

Monte Carlo methods are essential in domains as varied as finance, telecommunications, biology or even social sciences. They allow for solving problems centered on random calculation. This article firstly presents these methods via their basic principles (calculation of sums and integrals, discrete event simulation, etc.). An analysis of the precision of these methods is then provided; it notably deals with confidence intervals, independent replications, block estimates, etc.

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AUTHORS

  • Gerardo RUBINO: Research Director - French National Institute for Research in Computer Science and Control (INRIA) - Institute for Research in Computer Science and Random Systems (IRISA), Rennes

  • Bruno TUFFIN: Research Fellow, INRIA, IRISA, Rennes

 INTRODUCTION

Monte Carlo simulation methods can be seen as approximation methods, even if they are approximations in the statistical sense of the term. There is no absolute consensus on a precise definition of what a Monte Carlo technique is, but the most common description is that such methods are characterized by the use of chance to solve problems centered on a calculation. They are generally applicable to numerical problems, or to problems of a probabilistic nature.

In terms of applications, these methods are indispensable today in fields as varied and diverse as finance, the development of new electronic microcomponents, seismology, telecommunications, engineering or physics, but also in biology, social sciences, etc. For example, in chemistry, physics or even biology, many problems require the analysis of the dynamic properties of such a large number of objects (atomic particles, atoms, molecules or macromolecules), that this can only be done using Monte Carlo-type techniques.

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