先进的设计,技术和制造,大批量,低成本的生产

L. Lecheminoux, N. Gosselin
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引用次数: 10

摘要

在过去的几年中,低温共烧陶瓷(LTCC)技术已经证明了其用于无线通信的紧凑可靠的射频(RF)模块的极高效率。LTCC技术广泛应用于开关、功率放大器和手机蓝牙模块中。毫无疑问,在很短的时间内,这种技术也将被用于WLAN(无线局域网)模块。然而,LTCC解决方案通常难以设计,缺乏灵活性和昂贵,特别是与基于印刷电路板(PCB)的众所周知的解决方案相比。DT微电路公司和泰雷兹微电子公司共同开展了一项重要研究,旨在简化基于LTCC技术的WLAN模块的设计并降低其成本。本文对这12个月的研究进行总结。射频设计人员研究了应用于WLAN模块的不同架构和集成级别。基本的基本模块,如平衡器、滤波器、功率放大器(PA)和开关,被确定并描述为可能的架构、规格和预选技术的功能。它们分别在LTCC衬底中实现,并一起实现。设计、模拟、制造和测试了几个或多或少复杂的LTCC模块。该研究证明了在LTCC中有效实现WLAN前端模块(FEM)的不同组件的能力,无论所选择的技术和架构是什么:嵌入式LTCC组件(滤波器,开关),表面声波(SAW)滤波器,PIN二极管或GaAs开关和PA。它允许客户在WLAN LTCC模块的设计中节省重要的时间。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Advanced design, technology & manufacturing for high volume and low cost production
Over the last years, the Low Temperature Co-fired Ceramic (LTCC) technology has proven its extreme efficiency for compact and reliable radio-frequency (RF) modules for wireless communication. LTCC technology is widely present in switches, power amplifiers and Bluetooth modules for handsets. No doubt that this technology will also be adopted for the WLAN (wireless local area network) modules in a very short term. However LTCC solutions often suffers from the reputation to be difficult to design, few flexible and expensive specially versus the very well known solutions based on printed circuit boards (PCB). DT Microcircuits and Thales Microelectronics launched together an important study to simplify the design and reduce the cost of WLAN modules based on LTCC technology. This paper summarizes this 12 months study. RF designers studied the different architectures and integration levels applied to WLAN modules. Fundamental elementary blocks, like baluns, filters, power amplifiers (PA) and switches were identified and described as a function of possible architectures, specifications and pre-selected technologies. They were implemented in LTCC substrates individually and all together. Several more or less complex LTCC modules were designed, simulated, manufactured and tested. The study proved the ability to efficiently implement the different components of a WLAN front-end module (FEM) in LTCC, whatever the chosen technologies and architectures: embedded LTCC components (filters, switches), surface acoustic waves (SAW) filters, PIN diodes or GaAs switches and PA. It allows customers to save an important time in the design of their WLAN LTCC modules.
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