基于一级热管理的远程无线电头(RRH)系统冷却极限扩展

G. Refai-Ahmed, Hoa Do, Brian Philofsky, Anthony Torza
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引用次数: 6

摘要

无线网络从3G/4G向5G的演进将显著增加这些系统的带宽、容量和能力。为了满足这些不断增长的需求,芯片制造商正在使用积极的节点扩展和更紧密的SoC集成来提供下一代网络的承诺,而不会对系统功率产生负面影响。这些技术的结合有助于打破登纳德缩放,并导致每个器件更高的功率和热密度,因为我们将更多的电路集成到更小的区域中,这对现有的热设计技术提出了更大的挑战,并推动了这一发展的变化。本文将探讨一种这样的变化,使用无盖封装与创新的表面和安装方法相结合,以解决这种不断增长的功率密度范例。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Extending the Cooling Limit of Remote Radio Head (RRH) Systems Based on Level 1 Thermal Management
The evolution of wireless networks from 3G/4G to 5G will significantly increase the bandwidth, capacity and capability of these systems. To address these growing requirements, chip manufacturers are using aggressive node scaling coupled with tighter SoC integration to deliver the promises of the next generation network without negatively impacting system power. The combination of these techniques contribute to the breakdown of Dennard Scaling and result in higher power and thermal densities per device as we integrate more circuitry into smaller areas demanding a greater challenge to existing thermal design techniques and driving changes to this development. This paper will explore one such change using a lidless package paired with an innovative surface and mounting method to address this growing power density paradigm.
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