首页> 外文会议>Pan Pacific Microelectronics Symposium >Glass Panel Packaging, as the Most Leading-Edge Packaging: Technologies and Applications
【24h】

Glass Panel Packaging, as the Most Leading-Edge Packaging: Technologies and Applications

机译:玻璃面板包装,最前沿的包装:技术和应用

获取原文

摘要

The semiconductor and systems landscape are changing dramatically. As Moore's law begins to come to an end for many reasons that include minimal increase in transistor performance and in computer performance from node to node but at higher power, the industry has begun to shift to interconnections, referred to as Moore's law for Packaging. This focus addresses both the need for homogeneous and heterogeneous integrations by interconnecting smaller chips and smaller components with higher performance at lower cost and interconnecting them as multichip in 2.5 and 3D architectures. This is also called extending Moore's law, not in a single chip but with multiple chips interconnected horizontally and vertically. This strategy is very consistent with the dramatic and emerging changes in electronic systems such as in HPC, AI and a new era of self-driving and electric cars that potentially think and drive better than humans. This requires device, packaging, and computing architecture paradigms with an entirely different vision and strategy than transistor scaling alone. Packaging, which can be viewed broadly as system scaling, is now viewed as replacing Moore's law for enabling better devices and better systems, unlike in the past. Glass packaging is being developed by Georgia Tech and its industry partners, as the most leading-edge packaging, consistent with the above systems needs in cost, performance, functionality, reliability, and miniaturization. This paper describes the critical glass packaging technologies, their R&D and commercialization status as well as all the current and future applications. It compares and contrasts glass packaging against other leading-edge technologies such as Si and embedded packaging.
机译:半导体和系统领域正在发生巨大变化。随着摩尔定律的终止有很多原因,包括晶体管性能和节点之间计算机性能的最小增加,但功率更高时,该行业已开始转向互连,这被称为摩尔定律。该重点通过以更低的成本互连较小的芯片和较小的部件,具有更高的性能,并将它们互连为2.5和3D体系结构中的多芯片,从而满足了同质和异构集成的需求。这也称为扩展摩尔定律,不是在单个芯片中而是在水平和垂直方向上互连的多个芯片中。这种策略与电子系统的巨大变化和新兴变化(例如HPC,AI)以及自动驾驶和电动汽车的新时代相一致,这种新时代可能会比人类更好地思考和驾驶。这就要求器件,封装和计算架构范式与单独的晶体管缩放相比具有完全不同的愿景和策略。与过去不同的是,包装可以被广泛地视为系统扩展,现在被视为取代了摩尔定律,以实现更好的设备和更好的系统。佐治亚理工学院及其行业合作伙伴正在开发玻璃包装,这是最先进的包装,与上述系统在成本,性能,功能,可靠性和小型化方面的需求保持一致。本文介绍了关键的玻璃包装技术,其研发和商业化状态以及所有当前和将来的应用。它将玻璃包装与其他领先技术(例如Si和嵌入式包装)进行比较和对比。

著录项

相似文献

  • 外文文献
  • 中文文献
  • 专利
获取原文

客服邮箱:kefu@zhangqiaokeyan.com

京公网安备:11010802029741号 ICP备案号:京ICP备15016152号-6 六维联合信息科技 (北京) 有限公司©版权所有
  • 客服微信

  • 服务号