FUSE-IS: multi-modal data fusion for carbon-aware security in industrial energy systems

• A novel multi-modal Fusion-based Unified Security and Energy Efficiency approach for Industrial Systems (FUSE-IS) framework • FUSE-IS integrates deep learning, differential privacy, and carbon-aware resource scheduling in industrial energy systems • FUSE-IS provides enhance security, privacy, and energy efficiency in industrial energy systems • FUSE-IS concurrently addresses three critical and interdependent concerns of cybersecurity,data privacy, and carbon-aware efficiency. Modern industrial energy systems are increasingly reliant on heterogeneous data streams from sensors, grid infrastructure, renewable forecasts, and cybersecurity telemetry. Effectively fusing these diverse sources is essential for achieving resilient, efficient, and sustainable operations. In this paper, we present a Fusion-based Unified Security and Energy efficiency approach for Industrial Systems (FUSE-IS), a novel multi-modal data fusion framework. FUSE-IS integrates deep learning-based threat detection, differential privacy mechanisms, and carbon-aware resource scheduling. It enhances security, privacy, and energy efficiency in industrial energy environments. Unlike traditional solutions that address these objectives in isolation, FUSE-IS employs a unified data fusion approach that combines these solutions. As a result, it enabled real-time adaptive decision-making for threat mitigation, data protection, and carbon-optimized computing. Experimental results demonstrate that FUSE-IS achieves 98.5% detection accuracy with only 1.2% false positives, while reducing energy consumption by 24% and carbon emissions by 20% compared to baseline methods. The framework maintains strong privacy guarantees ( ϵ = 0.9) with minimal accuracy degradation (0.7%). A case study on DDoS mitigation illustrates FUSE-IS’s ability to dynamically adjust defense strategies based on carbon intensity fluctuations, resulting in a 27% emission reduction during the attack window.

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Publication Details

Journal
Information Fusion
Published
2025-09-23
DOI
https://doi.org/10.1016/j.inffus.2025.103759
Citations
3
Primary Topic
Smart Grid Security and Resilience
Type
article
Field-Weighted Citation Impact
3.64
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article

FUSE-IS: multi-modal data fusion for carbon-aware security in industrial energy systems

Xiangjian He, Ryan Alturki, Syed Tauhid Ullah Shah, Hanqing Jiang et al.
3 citations
Information Fusion
Smart Grid Security and Resilience
3.64
article

FUSE-IS: multi-modal data fusion for carbon-aware security in industrial energy systems

Xiangjian He, Ryan Alturki, Syed Tauhid Ullah Shah, Hanqing Jiang, Fazlullah Khan, Bandar Alshawe
article en
3 citations

Abstract

• A novel multi-modal Fusion-based Unified Security and Energy Efficiency approach for Industrial Systems (FUSE-IS) framework • FUSE-IS integrates deep learning, differential privacy, and carbon-aware resource scheduling in industrial energy systems • FUSE-IS provides enhance security, privacy, and energy efficiency in industrial energy systems • FUSE-IS concurrently addresses three critical and interdependent concerns of cybersecurity,data privacy, and carbon-aware efficiency. Modern industrial energy systems are increasingly reliant on heterogeneous data streams from sensors, grid infrastructure, renewable forecasts, and cybersecurity telemetry. Effectively fusing these diverse sources is essential for achieving resilient, efficient, and sustainable operations. In this paper, we present a Fusion-based Unified Security and Energy efficiency approach for Industrial Systems (FUSE-IS), a novel multi-modal data fusion framework. FUSE-IS integrates deep learning-based threat detection, differential privacy mechanisms, and carbon-aware resource scheduling. It enhances security, privacy, and energy efficiency in industrial energy environments. Unlike traditional solutions that address these objectives in isolation, FUSE-IS employs a unified data fusion approach that combines these solutions. As a result, it enabled real-time adaptive decision-making for threat mitigation, data protection, and carbon-optimized computing. Experimental results demonstrate that FUSE-IS achieves 98.5% detection accuracy with only 1.2% false positives, while reducing energy consumption by 24% and carbon emissions by 20% compared to baseline methods. The framework maintains strong privacy guarantees ( ϵ = 0.9) with minimal accuracy degradation (0.7%). A case study on DDoS mitigation illustrates FUSE-IS’s ability to dynamically adjust defense strategies based on carbon intensity fluctuations, resulting in a 27% emission reduction during the attack window.

Information FusionVol. 127
University of Nottingham Ningbo China (CN), University of Calgary (CA), Umm al-Qura University (SA), Jinzhou Medical University (CN)
Openalex Percentile: Top 6%
Smart Grid Security and Resilience
3.64
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