A Factorized High Dimensional Model Representation on the Partitioned Random Discrete Data

M. Alper Tunga, Metin Demiralp
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引用次数: 41

Abstract

The main purpose of this work is to obtain the general structure of a product type of multivariate function when the values of the function are given randomly at the nodes of a hyperprism. When the dimensionality of multivariate interpolation and the number of the data sets increase unboundedly, many problems can be encountered in the standard numerical methods. Factorized High Dimensional Model Representation (FHDMR) is used to obtain the general structure of this given multivariate function. The components of FHDMR are determined by using the components of the Generalized High Dimensional Model Representation (GHDMR).The given random discrete data is partitioned by GHDMR method. This partitioned data produces a structure for the multivariate function by using single variable Lagrange interpolation formula including only the constant term and the univariate terms of the GHDMR components. Finally, a general structure is obtained via FHMDR by using these components. By this way, the multidimensionality of a multivariate interpolation is approximated by lower dimensional interpolations like univariate ones. (© 2004 WILEY-VCH Verlag GmbH & Co. KGaA, Weinheim)

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一种分区随机离散数据的分解高维模型表示
本文的主要目的是得到多元积型函数在超棱镜节点处随机给定值时的一般结构。当多元插值的维数和数据集数量无限增加时,标准数值方法会遇到许多问题。采用分解高维模型表示法(FHDMR)得到了给定多元函数的一般结构。利用广义高维模型表示(GHDMR)的分量来确定FHDMR的分量。用GHDMR方法对给定的随机离散数据进行分割。通过使用单变量拉格朗日插值公式(仅包含GHDMR分量的常数项和单变量项),该分割数据产生了多元函数的结构。最后,利用这些元件通过FHMDR得到一个总体结构。通过这种方法,多元插值的多维度可以用像单变量插值那样的低维插值来近似。(©2004 WILEY-VCH Verlag GmbH &KGaA公司,Weinheim)
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