整合数字化增强数据提取与仿真建模以实现人工智能驱动的供应链韧性:一个面向关键矿产战略储备的运筹学框架

Integrating digitally enhanced data extraction and simulation modelling for AI-driven supply chain resilience: an operational research framework for strategic stockpiling of critical minerals

Journal of the Operational Research Society · 2026
被引 1 · 同刊同年前 4%
ABS 3

中文导读

提出一个结合大语言模型与仿真建模的框架,从政策文件等非结构化文本中提取数据,用于构建更真实的供应链模型,并以印度锂矿储备案例验证其有效性。

Abstract

Simulation modelling in Operations Research (OR) relies critically on data quality, yet multi-echelon supply chains (SC) often lack the timely, contextual information necessary for realistic model parameterisation and scenario generation. This research proposes the “Large Language Models (LLM)-Integrated Simulation Data Framework”, a domain-agnostic methodology that systematically integrates unstructured narratives with structured datasets to enhance simulation model realism and contextual relevance. The framework employs a Retrieval-Augmented Generation pipeline powered by LLMs to extract, structure, and validate intelligence from policy documents, news archives, and industry reports, transforming qualitative narratives into traceable model inputs for parameterisation, behavioural logic, and scenario specifications. We demonstrate the framework’s applicability through India’s strategic development of its lithium carbonate reserves processing 972 documents to generate 668 validated insights that inform agent behaviours, numerical parameters, and scenario specifications. The methodological contribution establishes a novel collaborative interface between OR and Generative Artificial Intelligence, demonstrating how automated extraction of contextual knowledge at scale enables the combination of quantitative baselines with qualitative intelligence to enhance simulation empirical grounding. The lithium stockpiling case validates the framework’s applicability in data-sparse, multi-echelon contexts, yielding policy insights on strategic reserve development whilst demonstrating broader applicability to geopolitically sensitive, resource-constrained SCs.

供应链管理运筹学人工智能数据提取关键矿产