创新的基于晶圆的互连使系统集成和半导体范式转变

Douglas Yu
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引用次数: 3

摘要

在半导体领域,为了满足不断增长的电子系统对性能和功能的要求,以及对降低系统外形尺寸、功耗和成本的要求,从芯片缩放到系统缩放出现了新的范式转变。这种转变也是由工业维持摩尔定律所面临的快速增长的挑战所引发的。系统扩展需要先进的封装技术。通常,封装技术与晶圆厂使用不同的工具集和不同的材料。本文提出了创新的基于晶圆的技术来制造先进的封装,这反过来又使系统规模化——一种新的范式转变。这里实现的另一个新范式转变是先进包装从传统包装转向创新的晶圆技术。这些创新涵盖了三种主要的系统扩展架构/技术:晶圆级封装(扇入和扇出)、si -via通孔封装(3DIC和interposer)以及适用于高性能和移动设备的超薄封装(PoP)。我们还重新发明了微电子,继续提供更先进的电子系统,并帮助维持摩尔定律。
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Innovative wafer-based interconnect enabling system integration and semiconductor paradigm shifts
In semiconductor world, there is a new paradigm shift from chip-scaling to system-scaling to meet the ever-increasing electronic system demands for performance and functionality, and for reduction of system form factor, power and cost. This shift is also triggered by the fast increasing challenges for industry to sustain Moore's Law. System scaling needs advanced package technologies. Conventionally, package technologies use different tool sets and different materials from those used in wafer fab. Innovative wafer-based technology is proposed here to fabricate advanced packaging that, in turn, enables the system scaling - a new paradigm shift. Another new paradigm shift enabled here is that the advanced packaging shifts from conventional packaging to the innovative wafer-based technology. The innovations cover three major system scaling architecture/technologies: wafer-level-packaging (fan-in and fan-out), through-Si-via (3DIC and interposer) and ultra-thin package-on-package (PoP) for both high performance and mobile devices. We also re-invent microelectronics, continue delivering more advanced electronic systems, and help to sustain Moore's Law.
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