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Quantum and GAN-Driven Digital Twin Approach for IoT-Based Consumer Electronics Manufacturing | IEEE Journals & Magazine | IEEE Xplore

Quantum and GAN-Driven Digital Twin Approach for IoT-Based Consumer Electronics Manufacturing


Abstract:

Quantum computing offers exceptional computational capabilities, but achieving optimal performance and resource efficiency in practical applications remains challenging. ...Show More

Abstract:

Quantum computing offers exceptional computational capabilities, but achieving optimal performance and resource efficiency in practical applications remains challenging. Addressing the gap between theoretical quantum algorithms and their real-world implementation, this study introduces QuantGAN, a novel approach designed to enhance sustainability and security in Internet of Things (IoT) and consumer electronics manufacturing. QuantGAN combines state-of-the-art quantum algorithms and generative adversarial networks (GANs) over a multilayered Digital Twin framework. This enables explicit sustainability risk assessment with quantum computing and latent process optimization via GANs. The Digital Twin, foreseen as an interactive metaverse interface, enables a real time touch-and-go framework. Central modules within GENESIS include a multilayered Digital Twin, quantum risk assessment algorithms, and an AI-driven continuous feedback loop orchestrated by GANs. The simulation environment uses Qiskit on Intel Core i7-10700K CPU with 32 GB RAM using Ubuntu 20.04 LTS. Our experimental results show that QuantGan effectively out performs the existing methods achieving 96.4% accuracy in detecting risk.
Published in: IEEE Internet of Things Journal ( Volume: 12, Issue: 4, 15 February 2025)
Page(s): 3734 - 3741
Date of Publication: 14 November 2024

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I. Introduction

Consumer electronics and Internet of Things (IoT) devices are central to the global economy because of their pervasive presence in exponential technological growth [1]. Their manufacturing has significant sustainability impacts from an environmental and socioeconomic perspective [2]. Being hugely resource-intensive [3], they result in environmental severe implications along the product life cycle, from extraction to electronic waste disposal [4]. In addition, this sector has a high growth rate; thereby its consumption will further exacerbate the problems related to resource depletion and waste management [5]. On the other hand, socioeconomic aspects, such as labor rights, good working conditions, and fair trade, are standard practices in the supply chains of electronic products [6], [7].

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