International Journal of Advanced Innovative Technology in Engineering (IJAITE)



Integrated Deep Temporal Learning and Reinforcement Optimization for Energy-Efficient Routing and Clustering in Wireless Sensor Networks

Prof. Kalyani S. Tidke

Abstract :

These Wireless Sensor Networks are widely used in applications such as environmental monitoring, smart cities, and industrial automation, where energy efficiency remains a critical challenge due to limited battery resources of sensor nodes. This paper proposes a Hybrid Energy-Efficient Intelligent model that integrates deep learning, swarm optimization, and reinforcement learning to minimize energy consumption and enhance network lifetime. The model combines a Bidirectional Long Short-Term Memory model for energy prediction, Particle Swarm Optimization for optimal cluster head selection, and an Actor-Critic reinforcement learning model for adaptive routing. The proposed approach used temporal energy patterns to prevent premature node failures, balances energy distribution through optimized clustering, and dynamically selects routing paths to reduce communication overhead. Extensive simulation results demonstrate that the proposed HEEIF framework achieves up to 80% energy reduction, improves network lifetime by 20-25%, and maintain a high packet delivery ratio of 94-96% compared to conventional methods such as LEACH, LSTM-based, and RL-based approaches. Additionally, the framework improves throughput, reduces delay, and enhances load balancing. The results indicate that integrating prediction, optimization, and adaptive learning that allows the scalable and efficient solution for next-generation energy-aware WSNs.

Keywords :

Wireless Sensor Network, Energy Optimization, Particle Swarm Optimization, Actor-Critic reinforcement

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DOI : 10.65809/IJAITE/26/v11i02/001

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References :

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