全集成初级相控阵封装天线预筛选测试的x波段波导夹具

L. Chang, C. Wang, Y. Wu, Ta-Shun Chu, Yu-Jiu Wang
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引用次数: 1

摘要

通过在大型中间层PCB上对基本封装天线(AiP)模块进行倒装键合,构建了一个大型9-10 GHz基于瓦片的可扩展相控阵系统(超过128个元件)。每个模块具有顶部辐射面和底部BGA键合面。由于相控阵系统严格的间距要求,从中间PCB上返工任何失效模块容易对系统造成更多的损坏,因此禁止返工。有必要有一个可靠的和自动测试设备(ATE)兼容的测试程序来预先筛选合格的基本模块进行粘接。然而,传统的测试夹具既不能接收天线的辐射信号,也不能将测试信号馈送到天线中。本文提出了一种用于AiP预筛选的波导夹具。这个夹具系统包括一个WR-90适配器,一个喇叭天线,一个Torlon帽和插座与POGO引脚,和一个PCB接口与ATE。为了测试AiP发射机,通过PCB连接器提供控制和测试信号,并从WR-90适配器收集辐射信号。为了测试AiP接收器,辐射信号通过WR-90适配器馈送,接收器输出信号从PCB连接器收集。为了校准波导夹具回波损耗,一组AiP SOL模块用于从整体系统损耗中去除PCB和测试夹具损耗。波导夹具实现了从AiP天线端口到波导端口在8至12 GHz范围内的平坦模拟−2.4 dB。该波导夹具为相控阵系统组件和最终的系统级空中测试选择合格的AiP提供了一种快速可靠的方法。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
An X-Band Waveguide Jig for Pre-Screening Testing of Fully-Integrated Elementary Phased-Array Transceiver Antenna-in-Package
A large 9-10 GHz tile-based scalable phased-array system (over 128 elements) is built by flip-chip bonding of elementary antenna-in-package (AiP) modules on a large interposer PCB. Each module has a top radiating surface and a bottom BGA bonding surface. Due to the strict spacing requirement of a phased-array system, rework of any failed modules from the interposer PCB is prone to create more damages to the system and is prohibited. It is necessary to have a reliable and Automatic Test Equipment (ATE)-compatible test procedures to pre-screen qualified elementary modules for bonding. However, conventional ATE-compatible test jig designs can neither receive radiation signals from antenna nor feed test signals into the antenna. In this paper, a waveguide jig for AiP pre-screening is proposed. This jig system consists of a WR-90 adapter, a horn antenna, a Torlon cap and socket with POGO pins, and a PCB to interface with ATE. To test AiP transmitter, controls and test signals are provided through PCB connectors, with radiation signals collected from the WR-90 adaptor. To test the AiP receiver, radiation signals are feeding through the WR-90 adaptor, and the receiver output signals are collected from the PCB connectors. To calibrate waveguide jig return loss, a set of AiP SOL modules are used to remove PCB and test fixture loss from the overall system loss. The waveguide jig achieves a flat simulated −2.4 dB from AiP antenna port to waveguide port from 8 to 12 GHz. This waveguide jig provides a fast and reliable approach to select qualified AiP for phased array system assemblies, and the final system-level over-the-air testing.
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