预测天线辐射模式和类型从voxated测量使用神经记忆三维横梁

IF 4.9 Q1 ENGINEERING, ELECTRICAL & ELECTRONIC
Anitha Gopi;Sruthi Pallathuvalappil;Elizabeth George;Alex James
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引用次数: 0

摘要

本文提出了一种从天线的辐射方向图中检测天线类型的非侵入性方法,以交叉验证天线的正常工作。本文采用三种天线的辐射方向图进行研究:a)偶极天线,b)单极天线,c)贴片天线。利用像素采样对辐射模式进行特征形成。使用SkyWater 130 PDK执行$128\ × 128$像素阵列布局的硬件实现。天线辐射方向图的交叉验证使用3D记忆卷积神经网络(3D- cnn)进行。基于Skywater 130 PDK对3D-CNN进行了仿真,并对仿真结果进行了分析。在这里,由于并发读写的灵活性,分类的面积、功耗和延迟都得到了降低。AI/ML模型的准确性和鲁棒性用于预测天线类型,并在各种加性噪声下进行了测试,例如a)高斯噪声,b)白色噪声,c)粉红色噪声,d)斑点噪声和e)盐和胡椒噪声。使用卷积神经网络(CNN) b) YOLOv8, c) VG-19 Net, d)决策树,e)朴素贝叶斯,f)随机森林和g) k近邻(KNN)等AI/ML模型进行性能评估。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Predicting Antenna Radiation Patterns and Types From Voxlated Measurements Using Neuro-Memristive 3D Crossbars
This paper proposes a non-invasive way to detect the antenna type from its radiation patterns to cross-validate its proper functioning. Here, the radiation pattern of three types of antennas namely: a) Dipole Antenna, b) Monopole Antenna, and c) Patch Antenna are used for the study. The feature formation from radiation patterns is performed using pixel sampling. Hardware implementation of a $128\times 128$ pixel array layout is performed using the SkyWater 130 PDK. The cross-validation of the antenna radiation pattern is performed using a 3D Memristive Convolutional Neural Network (3D-CNN). The simulations of the 3D-CNN are done based on Skywater 130 PDK, and the results are analysed. Here, due to the flexibility of concurrent reading and writing, the area, power and latency for the classification is getting reduced. The accuracy and robustness of AI/ML models are used for predicting the antenna type and are tested under various additive noise, such as a) Gaussian, b) White, c) Pink, d) Speckle and e) Salt and Pepper. The AI/ML models like a) Convolutional Neural Network (CNN) b) YOLOv8, c) VG-19 Net, d) Decision Tree, e) Naive Bayes, f) Random Forest and g) K-Nearest Neighbours (KNN) are used for the performance evaluation.
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CiteScore
10.70
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