2007
DOI: 10.1088/0026-1394/44/5/008
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A Monte Carlo method for uncertainty evaluation implemented on a distributed computing system

Abstract: This paper is concerned with bringing together the topics of uncertainty evaluation using a Monte Carlo method, distributed computing for data parallel applications and pseudo-random number generation. A study of a measurement system to estimate the absolute thermodynamic temperatures of two high-temperature blackbodies by measuring the ratios of their spectral radiances is used to illustrate the application of these topics. The uncertainties associated with the estimates of the temperatures are evaluated and … Show more

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Cited by 22 publications
(25 citation statements)
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“…Among all the $\left( {\matrix{ {I} \cr {n} \cr } } \right)$ possible combinations of standards sharing q replicates, the identity of the standards $i \in \left\{ {1,...,I} \right\}$ was chosen so as to minimize $E\left[ {Var\left( {\hat {y}|\{ n,i,q\} } \right)} \right]$ . As $E\left[ {Var\left( {\hat {y}|\{ n,i,q\} } \right)} \right]$ may be estimated for each $\left\{ {n,i,q} \right\}$ tuple separately, the Monte Carlo simulations may be implemented using a distributed computing system 15. The simulations were implemented in the R software (R Development Core Team 200816), and uses R's native pseudo random number generator (the ‘Mersenne‐Twister’ with period $2^{19937} - 1$ reported at double precision).…”
Section: Methodsmentioning
confidence: 99%
“…Among all the $\left( {\matrix{ {I} \cr {n} \cr } } \right)$ possible combinations of standards sharing q replicates, the identity of the standards $i \in \left\{ {1,...,I} \right\}$ was chosen so as to minimize $E\left[ {Var\left( {\hat {y}|\{ n,i,q\} } \right)} \right]$ . As $E\left[ {Var\left( {\hat {y}|\{ n,i,q\} } \right)} \right]$ may be estimated for each $\left\{ {n,i,q} \right\}$ tuple separately, the Monte Carlo simulations may be implemented using a distributed computing system 15. The simulations were implemented in the R software (R Development Core Team 200816), and uses R's native pseudo random number generator (the ‘Mersenne‐Twister’ with period $2^{19937} - 1$ reported at double precision).…”
Section: Methodsmentioning
confidence: 99%
“…To get around this, software was written to use the power of the NPLgrid-allowing calculations to be performed simultaneously on some 100 computers. A paper [7] and dissertation [8] describe the mathematics and software developments required to ensure that this approach is valid, for example, that the different computers did not generate the same random numbers.…”
Section: Monte Carlo Calculationmentioning
confidence: 99%
“…In this paper, the reliability analysis is based on Monte Carlo simulation, which has long been considered to be the most accurate method to evaluate the probability of the characteristics, and does not need to know the distribution characteristics [31][32][33]. The reliability expression of the approximate model can be described as follows.…”
Section: Multi-objective Robust Optimization Based On Approximate Modelmentioning
confidence: 99%