A Scenario Tree based Stochastic Programming Approach for Multi-Stage Weapon Equipment Mix Production Planning in Defense Manufacturing

The evolving military capability requirements (CRs) must be meted continuously by the multi-stage weapon equipment mix production planning (MWEMPP). Meanwhile, the CRs possess complex uncertainties with the variant military tasks in the whole planning horizon. The mean-value deterministic programmin...

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Main Authors: Li Xuan, Zhou Yu, Liao Tianjun, Hu Yajun
Format: Article
Language:English
Published: EDP Sciences 2016-01-01
Series:MATEC Web of Conferences
Online Access:http://dx.doi.org/10.1051/matecconf/20165101010
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spelling doaj-ee49ad44b50a4de495004bd40cf593182021-02-02T01:26:44ZengEDP SciencesMATEC Web of Conferences2261-236X2016-01-01510101010.1051/matecconf/20165101010matecconf_ic4m2016_01010A Scenario Tree based Stochastic Programming Approach for Multi-Stage Weapon Equipment Mix Production Planning in Defense ManufacturingLi Xuan0Zhou Yu1Liao Tianjun2Hu Yajun3Science and Technology on Information Systems Engineering Laboratory, National University of Defense TechnologySchool of Materiel Management and Safety Engineering, Air Force Engineering UniversityState Key Laboratory of Complex System Simulation, Beijing Institute of System EngineeringSchool of Materiel Management and Safety Engineering, Air Force Engineering UniversityThe evolving military capability requirements (CRs) must be meted continuously by the multi-stage weapon equipment mix production planning (MWEMPP). Meanwhile, the CRs possess complex uncertainties with the variant military tasks in the whole planning horizon. The mean-value deterministic programming technique is difficult to deal with the multi-period and multi-level uncertain decision-making problem in MWEMPP. Therefore, a multi-stage stochastic programming approach is proposed to solve this problem. This approach first uses the scenario tree to quantitatively describe the bi-level uncertainty of the time and quantity of the CRs, and then build the whole off-line planning alternatives assembles for each possible scenario, at last the optimal planning alternative is selected on-line to flexibly encounter the real scenario in each period. A case is studied to validate the proposed approach. The results confirm that the proposed approach can better hedge against each scenario of the CRs than the traditional mean-value deterministic technique.http://dx.doi.org/10.1051/matecconf/20165101010
collection DOAJ
language English
format Article
sources DOAJ
author Li Xuan
Zhou Yu
Liao Tianjun
Hu Yajun
spellingShingle Li Xuan
Zhou Yu
Liao Tianjun
Hu Yajun
A Scenario Tree based Stochastic Programming Approach for Multi-Stage Weapon Equipment Mix Production Planning in Defense Manufacturing
MATEC Web of Conferences
author_facet Li Xuan
Zhou Yu
Liao Tianjun
Hu Yajun
author_sort Li Xuan
title A Scenario Tree based Stochastic Programming Approach for Multi-Stage Weapon Equipment Mix Production Planning in Defense Manufacturing
title_short A Scenario Tree based Stochastic Programming Approach for Multi-Stage Weapon Equipment Mix Production Planning in Defense Manufacturing
title_full A Scenario Tree based Stochastic Programming Approach for Multi-Stage Weapon Equipment Mix Production Planning in Defense Manufacturing
title_fullStr A Scenario Tree based Stochastic Programming Approach for Multi-Stage Weapon Equipment Mix Production Planning in Defense Manufacturing
title_full_unstemmed A Scenario Tree based Stochastic Programming Approach for Multi-Stage Weapon Equipment Mix Production Planning in Defense Manufacturing
title_sort scenario tree based stochastic programming approach for multi-stage weapon equipment mix production planning in defense manufacturing
publisher EDP Sciences
series MATEC Web of Conferences
issn 2261-236X
publishDate 2016-01-01
description The evolving military capability requirements (CRs) must be meted continuously by the multi-stage weapon equipment mix production planning (MWEMPP). Meanwhile, the CRs possess complex uncertainties with the variant military tasks in the whole planning horizon. The mean-value deterministic programming technique is difficult to deal with the multi-period and multi-level uncertain decision-making problem in MWEMPP. Therefore, a multi-stage stochastic programming approach is proposed to solve this problem. This approach first uses the scenario tree to quantitatively describe the bi-level uncertainty of the time and quantity of the CRs, and then build the whole off-line planning alternatives assembles for each possible scenario, at last the optimal planning alternative is selected on-line to flexibly encounter the real scenario in each period. A case is studied to validate the proposed approach. The results confirm that the proposed approach can better hedge against each scenario of the CRs than the traditional mean-value deterministic technique.
url http://dx.doi.org/10.1051/matecconf/20165101010
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