Control Variates for Monte Carlo Analysis of Nonlinear Statistical Models, I: Overview
James J. Swain, Bruce W. Schmeiser
Abstract
James J. Swain, Bruce W. Schmeiser
Abstract
Parameter values of nonlinear statistical models are typically estimated from data using iterative numerical procedures. The resulting joint sampling distribution of the parameter estimators is often intractable, resulting in the use of approximators or Monte Carlo simulation to determine properties of the sampling distribution. This paper develops methods, using linear and higher-order approximators as control variates that reduce the variance of the Monte Carlo estimator by orders of magnitude. Estimation of means, higher-order raw moments, variances, covariances, and percentiles is considered.
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Parameter values of nonlinear statistical models are typically estimated from data using iterative numerical procedures. The resulting joint sampling distribution of the parameter estimators is often intractable, resulting in the use of approximators or Monte Carlo simulation to determine properties of the sampling distribution. This paper develops methods, using linear and higher-order approximators as control variates that reduce the variance of the Monte Carlo estimator by orders of magnitude. Estimation of means, higher-order raw moments, variances, covariances, and percentiles is considered.
Key concepts: Control variates, Monte Carlo method, Estimator, Monte Carlo integration, Mathematics, Hybrid Monte Carlo, Importance sampling, Statistics