实现完全自主的系统-封装设计:3D打印多层柔性封装结构中的嵌入式-封装5G能量采集器

Tong-Hong Lin, S. Daskalakis, A. Georgiadis, M. Tentzeris
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引用次数: 27

摘要

提出了一种仅使用喷墨和3D打印增材制造技术制造多层软包装的新工艺。3D打印坡道结构及其上的喷墨打印传输线由于对系统的寄生效应较低,适合于毫米波层间连接。此外,还提出了一种用于后向散射射频识别(RFID)的系统级封装(SoP)设计。必须强调的是,首次提出了使用增材制造技术嵌入包装内的26 GHz频率的射频能量采集器。在距离光源20cm处收集能量的输出电压为0.9 V,传输等效各向同性辐射功率(EIRP)为59 dBm。收集的能量足够大,可以为TS3001后向散射定时器供电,并且可以支持整个SoP设计的所有能量需求,因此SoP设计是完全自主的,不需要外部板或组件。系统尺寸可以缩小到封装级别,从而为可穿戴、物联网和5G应用的大量新型小型化自主模块铺平了道路。
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Achieving Fully Autonomous System-on-Package Designs: An Embedded-on-Package 5G Energy Harvester within 3D Printed Multilayer Flexible Packaging Structures
A novel multilayer flexible packaging fabrication process using only additively manufacturing techniques including inkjet and 3 dimensional (3D) printing is proposed. The 3D printed ramp structures and inkjet printed transmission lines on top of that are suitable for mm-wave inter-layer connections because lower parasitics are induced to the system. Moreover, a system-on-package (SoP) design for backscattering radio-frequency identification (RFID) is proposed. It has to be stressed, that an RF energy harvester operated at 26 GHz which is embedded inside the packaging using additively manufacturing techniques is proposed for the first time. The output voltage of the harvested energy at a distance of 20 cm away from the source is 0.9 V with transmitted equivalent isotropically radiated power (EIRP) equal to 59 dBm. The harvested energy is large enough to power the TS3001 timer for backscattering and can support all energy requirements of the entire SoP design so that the SoP design is fully autonomous and no external board or components are required. The system size can be shrunk to package level and thus paving the way for a multitude of novel miniaturized autonomous modules for wearable, IoT, and 5G applications.
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