Jean Maurice Mwizerwa, A. Allam, Asano Tanemasa, Adel B.Abdel-Rahman
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This proposed WPT system can be minimized to a small size, in addition to increasing the transmission distances and improved efficiency. Results indicate that the maximum lg average SAR level is about 1.22 W/kg in agreement with IEEE standard C95.1-1999 for maintaining standard SAR levels. This increases the overall performance efficiency of the WPT system. Also, the WPT system using DGS attains a power transfer efficiency of 98 %. There is a good agreement between the simulated, theoretical, and measured results that have been obtained. All the simulations of the circle-shaped DGS resonator and resonator systems are done in computer software technology (CST) and advanced digital system (ADS).","PeriodicalId":326002,"journal":{"name":"2022 10th International Japan-Africa Conference on Electronics, Communications, and Computations (JAC-ECC)","volume":"77 1","pages":"0"},"PeriodicalIF":0.0000,"publicationDate":"2022-12-19","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":"{\"title\":\"Improving the Coupling Efficiency of the WPT System and Miniaturized Implantable Resonator using Circle Shaped Defected Ground Structure\",\"authors\":\"Jean Maurice Mwizerwa, A. Allam, Asano Tanemasa, Adel B.Abdel-Rahman\",\"doi\":\"10.1109/JAC-ECC56395.2022.10044007\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"In this research, we propose a new structure of resonators built on a Rogers RO3010 substrate for wireless power transfer (WPT) implant. The resonator’s transmitter (TX) and receiver (RX) are both utilized for the stimulation. The design operates at 0.685 GHz at a transmission distance of 20 mm with a size of (18 mm × 18 mm). The size of the resonator is greatly reduced by considering a high dielectric constant. From literature, it is found that this proposed WPT system design is the smallest in comparison to a similar type of resonator and it achieves strong power transmission efficiency. The coupled resonators are optimized and loaded with defected ground structure (DGS) and integrated with a lumped capacitor. This proposed WPT system can be minimized to a small size, in addition to increasing the transmission distances and improved efficiency. Results indicate that the maximum lg average SAR level is about 1.22 W/kg in agreement with IEEE standard C95.1-1999 for maintaining standard SAR levels. This increases the overall performance efficiency of the WPT system. Also, the WPT system using DGS attains a power transfer efficiency of 98 %. There is a good agreement between the simulated, theoretical, and measured results that have been obtained. 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引用次数: 0
摘要
在这项研究中,我们提出了一种基于Rogers RO3010衬底的新型谐振器结构,用于无线电力传输(WPT)植入。谐振器的发射器(TX)和接收器(RX)都用于刺激。该设计工作在0.685 GHz,传输距离为20 mm,尺寸为(18 mm × 18 mm)。考虑到高介电常数,谐振腔的尺寸大大减小。从文献中可以发现,与同类谐振器相比,所提出的WPT系统设计是最小的,并且具有较强的功率传输效率。对耦合谐振腔进行了优化,加载了缺陷接地结构(DGS),并集成了集总电容器。提出的WPT系统可以最小化到一个小的尺寸,除了增加传输距离和提高效率。结果表明,该地区最大平均SAR值约为1.22 W/kg,符合IEEE C95.1-1999标准。这提高了WPT系统的整体性能效率。此外,使用DGS的WPT系统实现了98%的功率传输效率。模拟结果、理论结果和实测结果吻合良好。所有圆形DGS谐振器和谐振器系统的仿真都是在计算机软件技术(CST)和先进数字系统(ADS)中完成的。
Improving the Coupling Efficiency of the WPT System and Miniaturized Implantable Resonator using Circle Shaped Defected Ground Structure
In this research, we propose a new structure of resonators built on a Rogers RO3010 substrate for wireless power transfer (WPT) implant. The resonator’s transmitter (TX) and receiver (RX) are both utilized for the stimulation. The design operates at 0.685 GHz at a transmission distance of 20 mm with a size of (18 mm × 18 mm). The size of the resonator is greatly reduced by considering a high dielectric constant. From literature, it is found that this proposed WPT system design is the smallest in comparison to a similar type of resonator and it achieves strong power transmission efficiency. The coupled resonators are optimized and loaded with defected ground structure (DGS) and integrated with a lumped capacitor. This proposed WPT system can be minimized to a small size, in addition to increasing the transmission distances and improved efficiency. Results indicate that the maximum lg average SAR level is about 1.22 W/kg in agreement with IEEE standard C95.1-1999 for maintaining standard SAR levels. This increases the overall performance efficiency of the WPT system. Also, the WPT system using DGS attains a power transfer efficiency of 98 %. There is a good agreement between the simulated, theoretical, and measured results that have been obtained. All the simulations of the circle-shaped DGS resonator and resonator systems are done in computer software technology (CST) and advanced digital system (ADS).