This paper designs and optimizes a dual-band microstrip antenna applicable to 5G communication. After completing the antenna design, the paper presents a method to optimally design the antenna using machine learning techniques. Machine learning can be used to accelerate the antenna design process and identify the optimal parameters. Three algorithms are employed in this study: Decision Tree, K-Nearest Neighbors (KNN), and Neural Networks. Among these algorithms, the KNN model demonstrated the best performance. By utilizing machine learning techniques, traditional electromagnetic simulations can be replaced, allowing for faster simulation results. The final optimized dual-band antenna covers two 5G operating bands: 3.4–3.5 GHz (n77 band) and 4.8–5.0 GHz (n79 band), meeting the requirements for 5G wireless communication.

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Design and Optimization of Antennas Based on Machine Learning

  • ShiHao Shao,
  • Xiaoming Li,
  • Haofei Zhang,
  • Xin Yan,
  • Xueguang Yuan,
  • Zhenyu Xiao,
  • Yang’an Zhang

摘要

This paper designs and optimizes a dual-band microstrip antenna applicable to 5G communication. After completing the antenna design, the paper presents a method to optimally design the antenna using machine learning techniques. Machine learning can be used to accelerate the antenna design process and identify the optimal parameters. Three algorithms are employed in this study: Decision Tree, K-Nearest Neighbors (KNN), and Neural Networks. Among these algorithms, the KNN model demonstrated the best performance. By utilizing machine learning techniques, traditional electromagnetic simulations can be replaced, allowing for faster simulation results. The final optimized dual-band antenna covers two 5G operating bands: 3.4–3.5 GHz (n77 band) and 4.8–5.0 GHz (n79 band), meeting the requirements for 5G wireless communication.