Ultra-Fast and Efficient Design Method Using Deep Learning for Capacitive Coupling WPT System
- Publisher:
- IEEE-INST ELECTRICAL ELECTRONICS ENGINEERS INC
- Publication Type:
- Journal Article
- Citation:
- IEEE Transactions on Power Electronics, 2024, 39, (1), pp. 1738-1748
- Issue Date:
- 2024-01-01
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| Filename | Description | Size | |||
|---|---|---|---|---|---|
| Ultra-Fast_and_Efficient_Design_Method_Using_Deep_Learning_for_Capacitive_Coupling_WPT_System.pdf | Published version | 9.32 MB |
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Capacitive coupling wireless power transfer (CCWPT) is one of the pervasive methods to transfer power in the reactive near-field zone. In this article, a flexible design methodology based on binary particle swarm optimization (BPSO) algorithm is proposed for a pixelated microstrip structure. The pixel configuration of each parallel plate (43 × 43 pixels) determines the frequency response of the system (S-parameters) and by changing this configuration, we can achieve the dedicated operating frequency (resonance frequency) and its related |S21| value. Due to the large number of pixels, iterative optimization algorithm (BPSO) is the solution for designing a CCWPT system. However, the output of each iteration should be simulated in electromagnetic (EM) simulators (e.g., computer simulation technology (CST), high-frequency structure simulator (HFSS), etc.); hence, the whole optimization process is time-consuming. This article develops a rapid, agile, and efficient method for designing two parallel pixelated microstrip plates of a CCWPT system based on deep neural networks. In the proposed method, CST-based BPSO algorithm is replaced with an AI-based method using residual network-18. Advantages of the AI-based iterative method are automatic design process, more efficient, less time-consuming, less computational resource-consuming, and less background EM knowledge requirements compared to the conventional techniques. Finally, the prototype of the proposed simulated structure is fabricated and measured. The simulation and measurement results validate the design procedure accuracy, using AI-based BPSO algorithm. The mean absolute error of prediction for the main resonance frequency and related |S21| are 110 MHz and 0.18 dB, respectively, and according to the simulation results, the whole design process is 3629 times faster than the CST-based BPSO, algorithm.
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