The Sharon Waves Theory as A QuantumInspired Theory for Supply Chain Management

Modern supply chains are increasingly unpredictable and interconnected, making traditional forecasting and optimization models inadequate. This paper introduces a novel framework inspired by quantum mechanics to better capture the uncertainty and complexity of supply chains. By modeling inventory, demand, and risk as quantum-like entities called sharons, the framework treats these components as both particles (discrete units) and waves (continuous flows). The resulting Sharon wave function represents all possible supply chain states and evolves over time using principles like superposition, interference, and uncertainty. We define quantum-inspired operators to extract insights into demand, inventory, cost, and risk. Through mathematical modeling and real-world data, we demonstrate how this approach improves forecasting accuracy and enables dynamic strategy optimization. This framework offers a new lens to understand and manage supply chain behavior under uncertainty and aligns well with emerging quantum computing technologies.

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Publication Details

Journal
International Journal of Supply Chain Management
Published
2025-06-29
DOI
https://doi.org/10.59160/ijscm.v14i3.6316
Primary Topic
Supply Chain Resilience and Risk Management
Type
article
Field-Weighted Citation Impact
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article

The Sharon Waves Theory as A QuantumInspired Theory for Supply Chain Management

Ashutosh Sharma, Dean Saluti
International Journal of Supply Chain Management
Supply Chain Resilience and Risk Management
article

The Sharon Waves Theory as A QuantumInspired Theory for Supply Chain Management

Ashutosh Sharma, Dean Saluti
article en

Abstract

Modern supply chains are increasingly unpredictable and interconnected, making traditional forecasting and optimization models inadequate. This paper introduces a novel framework inspired by quantum mechanics to better capture the uncertainty and complexity of supply chains. By modeling inventory, demand, and risk as quantum-like entities called sharons, the framework treats these components as both particles (discrete units) and waves (continuous flows). The resulting Sharon wave function represents all possible supply chain states and evolves over time using principles like superposition, interference, and uncertainty. We define quantum-inspired operators to extract insights into demand, inventory, cost, and risk. Through mathematical modeling and real-world data, we demonstrate how this approach improves forecasting accuracy and enables dynamic strategy optimization. This framework offers a new lens to understand and manage supply chain behavior under uncertainty and aligns well with emerging quantum computing technologies.

International Journal of Supply Chain ManagementVol. 14(3)
Openalex Percentile: Top 77%
Supply Chain Resilience and Risk Management
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