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Updated: Apr 22, 2026

Large Scale Energy Efficient Sensor Network Routing Using a Quantum Processor Unit
Published on: September 8, 2023
Towards Green IoT: Energy Conservation in Core IoT Network Using Network Coding and Soft Actor Critic
B E Narasimhayya1, Bindhu Madhavi Prathipati2, Azadeh Amoozegar3
1The Oxford College of Engineering, VTU; narasimha.jain@rediffmail.com.
Abstract:
The rapid expansion of internet of things (IoT) networks has intensified energy efficiency challenges in core IoT networks, where data routing places high demands on node energy. This paper proposes a hybrid model integrating network coding (NC) with soft actor-critic (SAC) reinforcement learning to address these challenges. NC minimizes redundant transmissions by combining packets, while SAC agents dynamically select energy-aware routing paths based on node state, link quality, and residual energy. The system was implemented using the NS-3 simulator with a 5 × 5 grid topology of IoT nodes (512-byte packets, 100s runtime) under varying traffic conditions. Results demonstrate that NC + SAC achieves a 40% reduction in energy consumption, a 97% packet delivery ratio, 50% improvement in throughput, and an extended network lifetime compared to traditional routing and standalone approaches. Key contributions include novel NC-SAC integration, comprehensive NS-3 validation across multiple metrics, and demonstration of learning-driven coded communication for sustainable IoT infrastructures. The hybrid approach balances reliability, energy preservation, and performance, offering a scalable framework for next-generation green IoT networks.
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