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This paper critically examines model compression techniques within the machine learning (ML) domain, emphasizing their role in enhancing model efficiency for deployment in resource-constrained environments, such as mobile devices, edge computing, and Internet of Things (IoT) systems. By systematically exploring compression techniques and lightweight design architectures, it is provided a comprehensive understanding of their operational contexts and effectiveness. The synthesis of these strategies reveals a dynamic interplay between model performance and computational demand, highlighting the balance required for optimal application. As machine learning (ML) models grow increasingly complex and data-intensive, the demand for computational resources and memory has surged accordingly. This escalation presents significant challenges for the deployment of artificial intelligence (AI) systems in real-world applications, particularly where hardware capabilities are limited. Therefore, model compression techniques are not merely advantageous but essential for ensuring that these models can be utilized across various domains, maintaining high performance without prohibitive resource requirements. Furthermore, this review underscores the importance of model compression in sustainable artificial intelligence (AI) development. The introduction of hybrid methods, which combine multiple compression techniques, promises to deliver superior performance and efficiency. Additionally, the development of intelligent frameworks capable of selecting the most appropriate compression strategy based on specific application needs is crucial for advancing the field. The practical examples and engineering applications discussed demonstrate the real-world impact of these techniques. By optimizing the balance between model complexity and computational efficiency, model compression ensures that the advancements in AI technology remain sustainable and widely applicable. This comprehensive review thus contributes to the academic discourse and guides innovative solutions for efficient and responsible machine learning practices, paving the way for future advancements in the field. Graphical abstract
This paper critically examines model compression techniques within the machine learning (ML) domain, emphasizing their role in enhancing model efficiency for deployment in resource-constrained environments, such as mobile devices, edge computing, and Internet of Things (IoT) systems. By systematically exploring compression techniques and lightweight design architectures, it is provided a comprehensive understanding of their operational contexts and effectiveness. The synthesis of these strategies reveals a dynamic interplay between model performance and computational demand, highlighting the balance required for optimal application. As machine learning (ML) models grow increasingly complex and data-intensive, the demand for computational resources and memory has surged accordingly. This escalation presents significant challenges for the deployment of artificial intelligence (AI) systems in real-world applications, particularly where hardware capabilities are limited. Therefore, model compression techniques are not merely advantageous but essential for ensuring that these models can be utilized across various domains, maintaining high performance without prohibitive resource requirements. Furthermore, this review underscores the importance of model compression in sustainable artificial intelligence (AI) development. The introduction of hybrid methods, which combine multiple compression techniques, promises to deliver superior performance and efficiency. Additionally, the development of intelligent frameworks capable of selecting the most appropriate compression strategy based on specific application needs is crucial for advancing the field. The practical examples and engineering applications discussed demonstrate the real-world impact of these techniques. By optimizing the balance between model complexity and computational efficiency, model compression ensures that the advancements in AI technology remain sustainable and widely applicable. This comprehensive review thus contributes to the academic discourse and guides innovative solutions for efficient and responsible machine learning practices, paving the way for future advancements in the field. Graphical abstract
Utility companies face a serious problem with energy metre manipulation, which can result in lost income, inaccurate invoicing, and safety issues. Maintaining fair billing practices and the integrity of energy distribution systems depend on the prompt detection of tampering incidents. Nevertheless, current detection techniques frequently fall short in terms of effectiveness and fail to promptly notify authorities. In order to overcome this difficulty, our research suggests a novel method for identifying energy metre tampering and sending pertinent data via wireless communication technologies. The principal objective is to create a dependable system that can precisely identify instances of tampering in real-time and send alerts to relevant authorities with ease. Our solution is carefully designed to fill in the research gaps by drawing on a thorough assessment of the literature on wireless communication protocols and tampering detection techniques. Our solution delivers accurate and quick detection of tampering situations by utilising complex wireless communication protocols, modern sensor technology, and sophisticated data processing algorithms. The system architecture combines a wireless communication module with tampering detection sensors to quickly transmit notifications to the relevant authorities. Extensive tests are carried out to verify the functionality of the system, assessing critical parameters including alert reliability, response speed, and detection accuracy. Our experimental results highlight the effectiveness and reliability of the suggested approach in real-time alerting authorities and identifying tampered energy metres. This study makes a substantial contribution to the field of energy metre tampering detection and emphasises the critical role that wireless communication technologies play in preserving the integrity and security of energy distribution networks. In conclusion, our study presents a novel method for identifying energy metre tampering and wirelessly communicating vital information to authorities. Our research establishes a new benchmark in energy metre tampering detection by providing improved accuracy, efficiency, and timeliness, which promotes increased resilience and security in energy distribution networks.
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