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doi: 10.18452/8219
In this paper we study a Monte Carlo simulation based approach to stochastic discrete optimization problems. The basic idea of such methods is that a random sample is generated and consequently the expected value function is approximated by the corresponding sample average function. The obtained sample average optimization problem is solved, and the procedure is repeated several times until a stopping criterion is satisfied. We discuss convergence rates and stopping rules of this procedure and present a numerical example of the stochastic knapsack problem.
ddc:510, stochastic programming, stopping rules, Monte Carlo sampling, sample average approximation, law of large numbers, discrete optimization, 510 Mathematik, large deviations theory, stochastic knapsack problem
ddc:510, stochastic programming, stopping rules, Monte Carlo sampling, sample average approximation, law of large numbers, discrete optimization, 510 Mathematik, large deviations theory, stochastic knapsack problem
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