Inventory Policy by Dynamic Order

This paper proposes a novel inventory control policy called the dynamic order policy. The proposed policy dynamically adjusts the reorder quantity based on two threshold levels (s∗, s, S, S∗), enhancing its flexibility compared to the traditional policy (s, S). The new policy allows placing a larger order when the inventory drops below a threshold of s∗ and places a standard order when the inventory falls between the thresholds of s∗ and s. A genetic algorithm is employed to optimize the inventory decision parameters due to its ability to solve complex, nonlinear discrete problems. The model is tested under various simulation scenarios by demand rate, lead time, and customer volume. The results demonstrate that the proposed policy reduces the total average cost by up to 6.7% compared to the traditional policy. This dynamic framework presents a promising alternative for managing uncertain inventory environments with backlogs and variable lead times.

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Publication Details

Journal
Contemporary Mathematics
Published
2025-08-27
DOI
https://doi.org/10.37256/cm.6520257151
Primary Topic
Supply Chain and Inventory Management
Type
article
Field-Weighted Citation Impact
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article

Inventory Policy by Dynamic Order

Ahmad A. Abubaker
Contemporary Mathematics
Supply Chain and Inventory Management
article

Inventory Policy by Dynamic Order

Ahmad A. Abubaker
article en

Abstract

This paper proposes a novel inventory control policy called the dynamic order policy. The proposed policy dynamically adjusts the reorder quantity based on two threshold levels (s∗, s, S, S∗), enhancing its flexibility compared to the traditional policy (s, S). The new policy allows placing a larger order when the inventory drops below a threshold of s∗ and places a standard order when the inventory falls between the thresholds of s∗ and s. A genetic algorithm is employed to optimize the inventory decision parameters due to its ability to solve complex, nonlinear discrete problems. The model is tested under various simulation scenarios by demand rate, lead time, and customer volume. The results demonstrate that the proposed policy reduces the total average cost by up to 6.7% compared to the traditional policy. This dynamic framework presents a promising alternative for managing uncertain inventory environments with backlogs and variable lead times.

Contemporary Mathematics
Arab Open University (SA)
Openalex Percentile: Top 63%
Supply Chain and Inventory Management
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