供应链库存分析的多算法优化比较研究

Oussama Zabraoui, Yahya Hmamou , Anas Chafi , Salaheddine Kammouri Alami
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引用次数: 0

摘要

有效的库存管理对于实现高服务水平、最小化成本和保持零售供应链的整体弹性至关重要,特别是在复杂的现实环境中。传统战略往往被证明是不够的,因为它们依赖于僵化的假设或单一技术模型,无法适应需求波动、不可预测的交货时间和供应中断等实际挑战。为了弥补这一差距,我们的研究对多种方法进行了全面比较-包括强化学习(RL),遗传算法(GA),深度学习(DL),机器学习(ML)和启发式技术-在基于沃尔玛M5数据集的一致和现实的测试框架内进行评估。该数据集提供了一个强大的基准,包含多商店、多项目销售数据,这些数据捕获了季节性趋势、事件驱动的需求变化和价格敏感性。我们介绍并评估了一种结合遗传算法和深度q -网络(GA-DQN)的创新混合方法。GA组件进行广泛的全局搜索,以优化静态库存参数,如再订货点和安全库存,而DQN模块学习自适应、状态感知的订购策略,可以响应动态、不确定的条件。我们的研究结果表明,与单独的DQN基线相比,这种混合GA-DQN模型实现了显著的改进——将服务水平从61%提高到94%,同时降低了总体库存成本。我们提出的框架是模块化的,包括三个关键组成部分:使用长短期记忆(LSTM)网络进行需求预测,以捕捉时间销售模式;基于遗传算法的静态策略参数优化和rl驱动的自适应控制,以支持响应,实时订购决策。这种集成方法提供了一种可扩展的、数据驱动的解决方案,非常适合现代零售供应链的需求,有效地解决了供应商不可靠性、需求不确定性和易腐货物管理等问题。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

A comparative study of multi-algorithm optimization for inventory analytics in supply chains

A comparative study of multi-algorithm optimization for inventory analytics in supply chains
Effective management of inventory is essential for achieving high service levels, minimizing costs, and maintaining the overall resilience of retail supply chains—particularly in complex, real-world environments. Conventional strategies often prove inadequate because they rely on rigid assumptions or single-technique models that fail to accommodate practical challenges such as fluctuating demand, unpredictable lead times, and disruptions in supply.
To bridge this gap, our research undertakes a comprehensive comparison of multiple approaches — including Reinforcement Learning (RL), Genetic Algorithms (GA), Deep Learning (DL), Machine Learning (ML), and heuristic techniques — evaluated within a consistent and realistic testing framework based on the Walmart M5 dataset. This dataset offers a robust benchmark, containing multi-store, multi-item sales data that captures seasonal trends, event-driven demand variations, and price sensitivity. We introduce and evaluate an innovative hybrid methodology that combines a Genetic Algorithm with a Deep Q-Network (GA–DQN). The GA component conducts a broad, global search to optimize static inventory parameters such as reorder points and safety stock, while the DQN module learns adaptive, state-aware ordering strategies that can respond to dynamic, uncertain conditions. Our results show that this hybrid GA–DQN model achieves a significant improvement over a standalone DQN baseline—raising the service level from 61% to 94% and simultaneously lowering overall inventory costs. The framework we propose is modular and includes three key components: demand forecasting using Long Short-Term Memory (LSTM) networks to capture temporal sales patterns; GA-based optimization to fine-tune static policy parameters; and RL-driven adaptive control to support responsive, real-time ordering decisions. This integrated approach delivers a scalable, data-driven solution well-suited to the demands of modern retail supply chains, effectively addressing issues such as supplier unreliability, demand uncertainty, and the management of perishable goods.
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