TY - JOUR
T1 - Analyzing the M/M/1 queue in frequency domain experiments
AU - Jacobson, Sheldon H.
N1 - Funding Information:
The author would like to thank the anonymous referee for comments that have led to an improved statement of the implications of the results presented in this paper, and to Lucien Duckstein, the Associate Editor, for handling this paper and for his encouragement of this line of research. This research was supported in part by NSF grant DMI-9~09266.
PY - 1995/5
Y1 - 1995/5
N2 - Frequency domain experiments are a method of performing sensitivity analysis and factor screening, and estimating gradients for steady-state simulation models. The validity of the frequency domain analysis can be assessed by measuring the distance between the expected outputs of the sinusoidally oscillated input parameter system (as found in frequency domain experiments) and the fixed input parameter system (as found in time domain experiments). In this paper, an upper bound on this distance is derived for an M/M/1 queue, as the oscillation frequencies of the sinusoidally varied input parameters approach zero. This bound is shown to converge to zero as the input parameter oscillation ranges approach zero. This bound is also related to a Taylor series approximation of the output response function, and shown to converge to zero at the same rate as this approximation function. In addition, this bound is used to assess the bias of the harmonic gradient estimator.
AB - Frequency domain experiments are a method of performing sensitivity analysis and factor screening, and estimating gradients for steady-state simulation models. The validity of the frequency domain analysis can be assessed by measuring the distance between the expected outputs of the sinusoidally oscillated input parameter system (as found in frequency domain experiments) and the fixed input parameter system (as found in time domain experiments). In this paper, an upper bound on this distance is derived for an M/M/1 queue, as the oscillation frequencies of the sinusoidally varied input parameters approach zero. This bound is shown to converge to zero as the input parameter oscillation ranges approach zero. This bound is also related to a Taylor series approximation of the output response function, and shown to converge to zero at the same rate as this approximation function. In addition, this bound is used to assess the bias of the harmonic gradient estimator.
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U2 - 10.1016/0096-3003(94)00125-N
DO - 10.1016/0096-3003(94)00125-N
M3 - Article
AN - SCOPUS:58149212593
SN - 0096-3003
VL - 69
SP - 185
EP - 194
JO - Applied Mathematics and Computation
JF - Applied Mathematics and Computation
IS - 2-3
ER -