A simulation approach to determine the probability of demand during lead-time when demand distributed normal and lead-time distributed gamma

Globalization and advances in information and production technologies make inventory management can be very difficult even for organizations with simple structures. The complexities of inventory management increase in multi-stage networks, where inventory appears in multiple tiers of locations. Due...

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Main Authors: Ghafour, Karzan Mahdi, Ramli, Razamin, Zabidi, Nerda Zura
Format: Article
Language:English
Published: International Foundation for Research & Development 2014
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Online Access:http://repo.uum.edu.my/21548/1/JEBS%206%2011%202014%20840-847.pdf
http://repo.uum.edu.my/21548/
http://ifrnd.org/journal/index.php/jebs/article/view/543
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Institution: Universiti Utara Malaysia
Language: English
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spelling my.uum.repo.215482017-04-11T04:25:01Z http://repo.uum.edu.my/21548/ A simulation approach to determine the probability of demand during lead-time when demand distributed normal and lead-time distributed gamma Ghafour, Karzan Mahdi Ramli, Razamin Zabidi, Nerda Zura QA Mathematics Globalization and advances in information and production technologies make inventory management can be very difficult even for organizations with simple structures. The complexities of inventory management increase in multi-stage networks, where inventory appears in multiple tiers of locations. Due to massive practical applications in the reality of the world, an efficient inventory system policy whether single location or multi-stage location will avoid falling into overstock inventory or under stock inventory. However, the optimality of inventory and allocation policies in a supply chain is still unknown for most types of multi-stage systems. Hence, this paper aims to determine the probability distribution function of demand during lead-time by using a simulation model when the demand distributed normal and the lead-time distributed gamma. The simulation model showed a new probability distribution function of demand during lead-time in the considered inventory system, which is, Generalized Gamma distribution with 4 parameters. This probability distribution function makes the mathematical expression more difficult to build the inventory model especially in multistage or multi-echelon inventory model. International Foundation for Research & Development 2014-11 Article PeerReviewed application/pdf en cc4_by http://repo.uum.edu.my/21548/1/JEBS%206%2011%202014%20840-847.pdf Ghafour, Karzan Mahdi and Ramli, Razamin and Zabidi, Nerda Zura (2014) A simulation approach to determine the probability of demand during lead-time when demand distributed normal and lead-time distributed gamma. Journal of Economics and Behavioral Studies, 6 (11). pp. 840-847. ISSN 2220-6140 http://ifrnd.org/journal/index.php/jebs/article/view/543
institution Universiti Utara Malaysia
building UUM Library
collection Institutional Repository
continent Asia
country Malaysia
content_provider Universiti Utara Malaysia
content_source UUM Institutionali Repository
url_provider http://repo.uum.edu.my/
language English
topic QA Mathematics
spellingShingle QA Mathematics
Ghafour, Karzan Mahdi
Ramli, Razamin
Zabidi, Nerda Zura
A simulation approach to determine the probability of demand during lead-time when demand distributed normal and lead-time distributed gamma
description Globalization and advances in information and production technologies make inventory management can be very difficult even for organizations with simple structures. The complexities of inventory management increase in multi-stage networks, where inventory appears in multiple tiers of locations. Due to massive practical applications in the reality of the world, an efficient inventory system policy whether single location or multi-stage location will avoid falling into overstock inventory or under stock inventory. However, the optimality of inventory and allocation policies in a supply chain is still unknown for most types of multi-stage systems. Hence, this paper aims to determine the probability distribution function of demand during lead-time by using a simulation model when the demand distributed normal and the lead-time distributed gamma. The simulation model showed a new probability distribution function of demand during lead-time in the considered inventory system, which is, Generalized Gamma distribution with 4 parameters. This probability distribution function makes the mathematical expression more difficult to build the inventory model especially in multistage or multi-echelon inventory model.
format Article
author Ghafour, Karzan Mahdi
Ramli, Razamin
Zabidi, Nerda Zura
author_facet Ghafour, Karzan Mahdi
Ramli, Razamin
Zabidi, Nerda Zura
author_sort Ghafour, Karzan Mahdi
title A simulation approach to determine the probability of demand during lead-time when demand distributed normal and lead-time distributed gamma
title_short A simulation approach to determine the probability of demand during lead-time when demand distributed normal and lead-time distributed gamma
title_full A simulation approach to determine the probability of demand during lead-time when demand distributed normal and lead-time distributed gamma
title_fullStr A simulation approach to determine the probability of demand during lead-time when demand distributed normal and lead-time distributed gamma
title_full_unstemmed A simulation approach to determine the probability of demand during lead-time when demand distributed normal and lead-time distributed gamma
title_sort simulation approach to determine the probability of demand during lead-time when demand distributed normal and lead-time distributed gamma
publisher International Foundation for Research & Development
publishDate 2014
url http://repo.uum.edu.my/21548/1/JEBS%206%2011%202014%20840-847.pdf
http://repo.uum.edu.my/21548/
http://ifrnd.org/journal/index.php/jebs/article/view/543
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