Uncertainty analysis of space–time prisms based on the moment-design method

© 2016 Taylor & Francis. Space–time prism (STP) is an important concept for the modeling of object movements in space and time. An STP can be conceptualized as the result of the potential path of a moving object revolving around in the three-dimensional space. Though the concept has found appl...

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Main Authors: Leung, Yee-Hong, Zhao, Z., Ma, J.
Format: Journal Article
Published: Taylor and Francis 2016
Online Access:http://hdl.handle.net/20.500.11937/57867
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author Leung, Yee-Hong
Zhao, Z.
Ma, J.
author_facet Leung, Yee-Hong
Zhao, Z.
Ma, J.
author_sort Leung, Yee-Hong
building Curtin Institutional Repository
collection Online Access
description © 2016 Taylor & Francis. Space–time prism (STP) is an important concept for the modeling of object movements in space and time. An STP can be conceptualized as the result of the potential path of a moving object revolving around in the three-dimensional space. Though the concept has found applications in time geography, research on the analysis and propagation of uncertainty in STPs, particularly under high degree of nonlinearity, is scanty. Based on the efficiency and effectiveness of the moment-design (M-D) method, this paper proposes an approach to deal with nonlinear error propagation problems in the potential path areas (PPAs) of STPs and their intersections. Propagation of errors to the PPA and its boundary, and to the intersection of two PPAs is investigated. Performance of the proposed method is evaluated via a series of experimental studies. In comparison with the Monte Carlo method and the implicit function method, simulation results show the advantages of the M-D method in the analysis of error propagation in STPs.
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institution Curtin University Malaysia
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publishDate 2016
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spelling curtin-20.500.11937-578672017-11-20T08:58:16Z Uncertainty analysis of space–time prisms based on the moment-design method Leung, Yee-Hong Zhao, Z. Ma, J. © 2016 Taylor & Francis. Space–time prism (STP) is an important concept for the modeling of object movements in space and time. An STP can be conceptualized as the result of the potential path of a moving object revolving around in the three-dimensional space. Though the concept has found applications in time geography, research on the analysis and propagation of uncertainty in STPs, particularly under high degree of nonlinearity, is scanty. Based on the efficiency and effectiveness of the moment-design (M-D) method, this paper proposes an approach to deal with nonlinear error propagation problems in the potential path areas (PPAs) of STPs and their intersections. Propagation of errors to the PPA and its boundary, and to the intersection of two PPAs is investigated. Performance of the proposed method is evaluated via a series of experimental studies. In comparison with the Monte Carlo method and the implicit function method, simulation results show the advantages of the M-D method in the analysis of error propagation in STPs. 2016 Journal Article http://hdl.handle.net/20.500.11937/57867 10.1080/13658816.2015.1130830 Taylor and Francis restricted
spellingShingle Leung, Yee-Hong
Zhao, Z.
Ma, J.
Uncertainty analysis of space–time prisms based on the moment-design method
title Uncertainty analysis of space–time prisms based on the moment-design method
title_full Uncertainty analysis of space–time prisms based on the moment-design method
title_fullStr Uncertainty analysis of space–time prisms based on the moment-design method
title_full_unstemmed Uncertainty analysis of space–time prisms based on the moment-design method
title_short Uncertainty analysis of space–time prisms based on the moment-design method
title_sort uncertainty analysis of space–time prisms based on the moment-design method
url http://hdl.handle.net/20.500.11937/57867