基于LTCC技术的MEMS, MOEMS, RF-MEMS和光子封装

P. Karioja, K. Kautio, J. Ollila, K. Keranen, M. Karppinen, V. Heikkinen, T. Jaakola, M. Lahti
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引用次数: 7

摘要

为了实现光子系统的规格,需要将各种光电子芯片、MEMS、MOEMS和RF-MEMS器件、微光元件和集成电路集成到功能元件、模块和系统中。光子系统的子系统必须通过使用成本效益高、可复制、成熟、大批量的制造技术来制造。系统的功能由各个设备的功能组合而成。然而,系统的性能是由封装和集成方法以及配置来定义的。低温共烧陶瓷(LTCC)是我们用于光子学和MEMS/MOEMS/RF-MEMS封装的关键技术资产之一。在光电集成中,器件对准公差是集成的关键问题。为了能够使用大规模制造工具,主要目标是处理3D结构,例如凹槽,空腔,孔,凸起和对准基准,这些结构可用于设备的被动对准。LTCC结构的公差通常为±5μm,在某些特定情况下为±2μm。因此,LTCC为多模光纤和MOEMS器件的无源对准提供了手段。在LTCC中使用热通孔进行热管理是一项成熟的技术,LTCC衬底中的液体冷却通道为高功率激光冷却提供了有效的额外手段。当目标是热控制系统时,可以使用热桥结构将关键器件与主要结构隔离开来。LTCC提供固有的密封基板,允许密封封装的可能性。密封纤维馈通和透明窗口可以集成在LTCC结构中。也可以制造空腔、通道和密封的气室。用于电磁场控制的射频天线和线圈结构可以集成在LTCC衬底中。因此,通过LTCC可以实现MEMS、MOEMS和光子器件的3D封装。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
MEMS, MOEMS, RF-MEMS and photonics packaging based on LTCC technology
In order to fulfill the specifications of photonic systems, various optoelectronic chips, MEMS, MOEMS and RF-MEMS devices, micro-optical elements and integrated circuits needs to be integrated into functional components, modules and systems. The sub-systems of the photonic system must be fabricated by the use of cost-efficient, reproducible, well-established, high-volume manufacturing technologies. The functionality of the system is outlined by the combination of the functionalities of individual devices. The performance of the system, however, is defined by packaging and integration methods and configurations. Low temperature cofired ceramics (LTCC) is one of our key technology assets for photonics and MEMS/MOEMS/RF-MEMS packaging. In photonics integration, the tolerance of device alignment is the key issue of integration. In order to be able to use mass-manufacturing tools, the primary aim is to process 3D structures, such as, grooves, cavities, holes, bumps and alignment fiducials, which can be used for the passive alignment of devices. The tolerances of LTCC structures are typically ±5μm and in some specific cases ±2μm. Therefore, LTCC provides means for the passive alignment of multimode fiber as well as MOEMS devices. Thermal management by the use of thermal vias in LTCC is a well-established technique, and liquid cooling channels in the LTCC substrate provide efficient additional means for high-power laser cooling. When targeting for thermally controlled systems, thermal bridge structures can be used to isolate critical devices from main structures. LTCC provides inherently hermetic substrate allowing for the possibility to hermetic encapsulation. Hermetic fiber feed throughs and transparent windows can be integrated in LTCC structures. Cavities, channels and sealed gas cells can be fabricated, also. RF antennas and coil structures for electro-magnetic field control can be integrated in the LTCC substrate. Therefore, 3D packaging of MEMS, MOEMS and photonic devices is enabled by LTCC.
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