Inventory lot-sizing with supplier selection
Computers and Operations Research
A Two-Echelon Inventory Optimization Model with Demand Time Window Considerations
Journal of Global Optimization
Capacitated Multi-Item Lot-Sizing Problems with Time Windows
Operations Research
Computers and Electronics in Agriculture
Inventory Replenishment and Inbound Shipment Scheduling Under a Minimum Replenishment Policy
Transportation Science
Polyhedral and Lagrangian approaches for lot sizing with production time windows and setup times
Computers and Operations Research
Satisfying market demands with delivery obligations or delivery charges
Computers and Operations Research
Economic Lot-Sizing for Integrated Production and Transportation
Operations Research
A polynomial time algorithm for the stochastic uncapacitated lot-sizing problem with backlogging
IPCO'08 Proceedings of the 13th international conference on Integer programming and combinatorial optimization
Original paper: Should feed mills go beyond traditional least cost formulation?
Computers and Electronics in Agriculture
Stochastic lot-sizing with backlogging: computational complexity analysis
Journal of Global Optimization
Addressing lot sizing and warehousing scheduling problem in manufacturing environment
Expert Systems with Applications: An International Journal
Four equivalent lot-sizing models
Operations Research Letters
Capacitated dynamic lot-sizing problem with delivery/production time windows
Operations Research Letters
Dynamic lot-sizing model with demand time windows and speculative cost structure
Operations Research Letters
Inventory replenishment model: lot sizing versus just-in-time delivery
Operations Research Letters
Computers and Industrial Engineering
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One of the basic assumptions of the classical dynamic lot-sizing model is that the aggregate demand of a given period must be satisfied in that period. Under this assumption, if backlogging is not allowed, then the demand of a given period cannot be deliveredearlier orlater than the period. If backlogging is allowed, the demand of a given period cannot be deliveredearlier than the period, but it can be delivered later at the expense of a backordering cost. Like most mathematical models, the classical dynamic lot-sizing model is a simplified paraphrase of what might actually happen in real life. In most real-life applications, the customer offers a grace period--we call it ademand time window--during which a particular demand can be satisfied with no penalty. That is, in association with each demand, the customer specifies an acceptable earliest and a latest delivery time. The time interval characterized by the earliest and latest delivery dates of a demand represents the corresponding time window.This paper studies the dynamic lot-sizing problem with demand time windows and provides polynomial time algorithms for computing its solution. If backlogging is not allowed, the complexity of the proposed algorithm is O( T2) where T is the length of the planning horizon. When backlogging is allowed, the complexity of the proposed algorithm is O( T3).