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Dynamic lot sizing with product returns

Research output: Working paper

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Dynamic lot sizing with product returns. / Teunter, R H; Bayýndýr, Z P; van den Heuvel, W.
Lancaster University: The Department of Management Science, 2006. (Management Science Working Paper Series).

Research output: Working paper

Harvard

Teunter, RH, Bayýndýr, ZP & van den Heuvel, W 2006 'Dynamic lot sizing with product returns' Management Science Working Paper Series, The Department of Management Science, Lancaster University.

APA

Teunter, R. H., Bayýndýr, Z. P., & van den Heuvel, W. (2006). Dynamic lot sizing with product returns. (Management Science Working Paper Series). The Department of Management Science.

Vancouver

Teunter RH, Bayýndýr ZP, van den Heuvel W. Dynamic lot sizing with product returns. Lancaster University: The Department of Management Science. 2006. (Management Science Working Paper Series).

Author

Teunter, R H ; Bayýndýr, Z P ; van den Heuvel, W. / Dynamic lot sizing with product returns. Lancaster University : The Department of Management Science, 2006. (Management Science Working Paper Series).

Bibtex

@techreport{de3ef1fe071e4dbb9caf5abb4a0d2d48,
title = "Dynamic lot sizing with product returns",
abstract = "We address the dynamic lot sizing problem for systems with product returns. The demand and return amounts are deterministic over the finite planning horizon. Demands can be satisfied by manufactured new items, but also by remanufactured returned items. The objective is to determine those lot sizes for manufacturing and remanufacturing that minimize the total cost composed of holding cost for returns and (re)manufactured products and set-up costs. Two different set-up cost schemes are considered; there is either a joint set-up cost for manufacturing and remanufacturing (single production line) or separate set-up costs (dedicated production lines). For the joint set-up cost case, we present an exact, polynomial time dynamic programming algorithm. For both cases, we suggest modifications of the well-known Silver Meal (SM), Least Unit Cost (LUC) and Part Period Balancing (PPB) heuristics. An extensive numerical study reveals a number of insights. The key ones are that under both set-up cost schemes: (1) the SM and LUC heuristics perform much better than PPB, (2) increased variation in the demand amounts can lead to reduced cost, showing that predictability is more important than variation, and (3) periods with more returns than demand should, if possible, be avoided by {\textquoteright}matching{\textquoteright} demand and return.",
keywords = "inventory management, lot sizing, reverse logistics, remanufacturing",
author = "Teunter, {R H} and Bay{\'y}nd{\'y}r, {Z P} and {van den Heuvel}, W",
year = "2006",
language = "English",
series = "Management Science Working Paper Series",
publisher = "The Department of Management Science",
type = "WorkingPaper",
institution = "The Department of Management Science",

}

RIS

TY - UNPB

T1 - Dynamic lot sizing with product returns

AU - Teunter, R H

AU - Bayýndýr, Z P

AU - van den Heuvel, W

PY - 2006

Y1 - 2006

N2 - We address the dynamic lot sizing problem for systems with product returns. The demand and return amounts are deterministic over the finite planning horizon. Demands can be satisfied by manufactured new items, but also by remanufactured returned items. The objective is to determine those lot sizes for manufacturing and remanufacturing that minimize the total cost composed of holding cost for returns and (re)manufactured products and set-up costs. Two different set-up cost schemes are considered; there is either a joint set-up cost for manufacturing and remanufacturing (single production line) or separate set-up costs (dedicated production lines). For the joint set-up cost case, we present an exact, polynomial time dynamic programming algorithm. For both cases, we suggest modifications of the well-known Silver Meal (SM), Least Unit Cost (LUC) and Part Period Balancing (PPB) heuristics. An extensive numerical study reveals a number of insights. The key ones are that under both set-up cost schemes: (1) the SM and LUC heuristics perform much better than PPB, (2) increased variation in the demand amounts can lead to reduced cost, showing that predictability is more important than variation, and (3) periods with more returns than demand should, if possible, be avoided by ’matching’ demand and return.

AB - We address the dynamic lot sizing problem for systems with product returns. The demand and return amounts are deterministic over the finite planning horizon. Demands can be satisfied by manufactured new items, but also by remanufactured returned items. The objective is to determine those lot sizes for manufacturing and remanufacturing that minimize the total cost composed of holding cost for returns and (re)manufactured products and set-up costs. Two different set-up cost schemes are considered; there is either a joint set-up cost for manufacturing and remanufacturing (single production line) or separate set-up costs (dedicated production lines). For the joint set-up cost case, we present an exact, polynomial time dynamic programming algorithm. For both cases, we suggest modifications of the well-known Silver Meal (SM), Least Unit Cost (LUC) and Part Period Balancing (PPB) heuristics. An extensive numerical study reveals a number of insights. The key ones are that under both set-up cost schemes: (1) the SM and LUC heuristics perform much better than PPB, (2) increased variation in the demand amounts can lead to reduced cost, showing that predictability is more important than variation, and (3) periods with more returns than demand should, if possible, be avoided by ’matching’ demand and return.

KW - inventory management

KW - lot sizing

KW - reverse logistics

KW - remanufacturing

M3 - Working paper

T3 - Management Science Working Paper Series

BT - Dynamic lot sizing with product returns

PB - The Department of Management Science

CY - Lancaster University

ER -