Smart Grid Energy Management Using IoT and Machine Learning
Code:JOSSDA:202612.00011
Authors:M. J. Yeldu, Y. G. Gelwasa
Category:Machine Learning
Publication date:2026-12-01
Keywords:smart gridenergy management
The increasing complexity of modern power systems due to growing electricity demand, renewable energy integration, distributed generation, and changing consumer behaviour has created the need for intelligent energy management solutions capable of achieving efficient, reliable, and sustainable grid operation. Conventional energy management approaches are increasingly challenged by the dynamic and uncertain characteristics of contemporary power networks, necessitating advanced technologies that can provide real-time monitoring, accurate prediction, and autonomous decision-making. This paper presents a comprehensive investigation of Smart Grid Energy Management Using IoT and Machine Learning, focusing on the integration of Internet of Things (IoT) technologies and machine learning (ML) algorithms for improving energy efficiency, grid reliability, and operational intelligence. The IoT infrastructure enables real-time acquisition of critical grid information through smart meters, intelligent electronic devices, sensors, and communication networks, providing large-scale heterogeneous datasets related to electricity consumption, voltage variation, frequency behaviour, renewable energy generation, and equipment conditions. Machine learning techniques are employed to analyse these data for applications including load forecasting, renewable energy prediction, demand response optimisation, fault detection, predictive maintenance, energy scheduling, and adaptive grid control. Advanced learning approaches such as artificial neural networks, deep learning, long short-term memory networks, support vector machines, and reinforcement learning are examined for their effectiveness in addressing complex energy management challenges. Recent developments in edge intelligence, federated learning, and privacy-preserving machine learning are further explored as emerging solutions for improving computational efficiency, data security, and real-time decision-making in IoT-driven smart grids. Despite the significant benefits of IoT and ML integration, challenges related to cybersecurity, data privacy, interoperability, communication latency, computational limitations, and model interpretability remain critical barriers to widespread implementation. This study highlights that the combination of IoT-enabled sensing and machine learning-based intelligence provides a transformative approach for developing adaptive, resilient, and sustainable smart grid energy management systems capable of supporting future decentralised and renewable-dominated power networks.