Optimization of Computer Network Routing using Reinforcement Learning Algorithm

Conventional network routing is based on strict rules that are inflexible, preventing dynamic adaptation to traffic movement. Our groundbreaking research introduces Q-learning, a machine learning method that transcends network behaviour by allowing real-time learning and traffic optimization. This revolutionary approach enables networks to mimic the strategic choice-making of a seasoned taxi driver navigating in complex shortcuts, leading to improved efficiency and congestion evasion. Defying challenges of computational efficiency and scalability, our results show significant advantages: an impressive 33% delay reduction, near-zero data loss (only 0.1%), and consistent high-speed throughput up to 9.5 Gbps. Importantly, our solution outperforms other AI routing techniques by performing better in stability and interpretability, establishing a new benchmark for adaptive networking technology. This revolutionary work lays the ground for future networks that deploy a mix of AI methods to learn autonomously while being transparent about their decision-making processes, guaranteeing robust infrastructures that can cater to the changing needs of the future seamlessly.

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Publication Details

Published
2025-04-25
DOI
https://doi.org/10.1109/icdcece65353.2025.11035623
Primary Topic
Wireless Sensor Networks and IoT
Type
article
Field-Weighted Citation Impact
0.00
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article

Optimization of Computer Network Routing using Reinforcement Learning Algorithm

Weiwei Wei
Wireless Sensor Networks and IoT
article

Optimization of Computer Network Routing using Reinforcement Learning Algorithm

Weiwei Wei
article en

Abstract

Conventional network routing is based on strict rules that are inflexible, preventing dynamic adaptation to traffic movement. Our groundbreaking research introduces Q-learning, a machine learning method that transcends network behaviour by allowing real-time learning and traffic optimization. This revolutionary approach enables networks to mimic the strategic choice-making of a seasoned taxi driver navigating in complex shortcuts, leading to improved efficiency and congestion evasion. Defying challenges of computational efficiency and scalability, our results show significant advantages: an impressive 33% delay reduction, near-zero data loss (only 0.1%), and consistent high-speed throughput up to 9.5 Gbps. Importantly, our solution outperforms other AI routing techniques by performing better in stability and interpretability, establishing a new benchmark for adaptive networking technology. This revolutionary work lays the ground for future networks that deploy a mix of AI methods to learn autonomously while being transparent about their decision-making processes, guaranteeing robust infrastructures that can cater to the changing needs of the future seamlessly.

Beijing Information Science & Technology University (CN)
Openalex Percentile: Top 84%
Wireless Sensor Networks and IoT
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