首页> 外文会议>2003 International Electronic Packaging Technical Conference and Exhibition; Jul 6-11, 2003; Maui, Hawaii >CHIP IN POLYMER - 3D INTEGRATION OF ACTIVE CIRCUITRY IN POLYMERIC SUBSTRATE
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CHIP IN POLYMER - 3D INTEGRATION OF ACTIVE CIRCUITRY IN POLYMERIC SUBSTRATE

机译:聚合物中的芯片-聚合物基板中有源电路的3D集成

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The demand to miniaturize products especially for mobile applications and autonomous systems is .continuing to drive the evolution of electronic products and manufacturing methods. One key to miniaturization developed in the past was the use of unpackaged, bare dice.Saving the volume and weight of the package, significant reduction in footprint was achieved. A next step conceived to further the miniaturization is the integration of functions on miniaturized subsystems, i.e. System-in-Package (SiP), in contrast to a full silicon integration (System-on- Chip, SoC). Here, use of recent manufacturing methods allows to merge the SiP approach with a volumetric integration. Up to now, most of the systems make use of single-or double-sided populated system carriers. Embedding of passive components was a first step forward. A new challenge is to incorporate not only passive components, but as well active circuitry (IC's) and the necessary thermal management. Ultra thin chips (i.e. silicon dies thinned down to <50μm total thickness) lend themselves to reach these goals. Chips with that thickness can be embedded in the dielectric layers of modem laminate PCB's. Micro via technology allows to contact the embedded chip to the outer faces of the system circuitry .As a ultimate goal for microsystem integration, the embedding of optical and fluidical system components can be envisioned. This paper presents the first attempts to embed thin silicon dies in to polymeric system carriers. The aspects of embedding and making the electrical contact as well as the thermal management are highlighted. To reach the goal of a vertically stackable "box-of-bricks" type of ultra thin (UT) package, thin silicon chips are embedded and interconnected on a peripheral UT-CSP.
机译:小型化产品的需求,尤其是针对移动应用和自治系统的需求,正在继续推动电子产品和制造方法的发展。过去开发的微型化的关键之一是使用未包装的裸骰子,节省了包装的体积和重量,从而显着减少了占地面积。与完全硅集成(片上系统,SoC)相比,进一步实现微型化的下一步是在微型子系统上集成功能,即系统级封装(SiP)。在这里,使用最新的制造方法可以将SiP方法与体积集成合并。到目前为止,大多数系统都使用单面或双面填充的系统载体。嵌入无源组件是向前迈出的第一步。一个新的挑战是不仅要结合无源元件,还要结合有源电路(IC)和必要的热管理。超薄芯片(即总厚度小于50μm的硅芯片)有助于实现这些目标。具有该厚度的芯片可以嵌入到现代层压PCB的介电层中。微通孔技术允许将嵌入式芯片与系统电路的外表面接触。作为微系统集成的最终目标,可以预见光学和流体系统组件的嵌入。本文提出了将薄硅片嵌入到聚合物系统载体中的首次尝试。重点介绍了嵌入和进行电接触以及进行热管理的方面。为了达到可垂直堆叠的“砖头盒子”类型的超薄(UT)封装的目标,将薄硅芯片嵌入并互连在外围UT-CSP上。

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