MultiGigabit millimeter wave communication: System concepts and challenges

Upamanyu Madhow
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引用次数: 11

Abstract

The millimeter wave band from 60-95 GHz offers large swathes of unlicensed and semi-unlicensed spectrum, which may well form the basis for the next revolution in wireless communication, in which wireless catches up with wires.With the rapid scaling of silicon processes, low-cost implementations for radio frequency front-ends are on the horizon. A key challenge now is to parlay these breakthroughs into innovative system concepts. We review three such concepts here.Millimeter wave MIMO: The small carrier wavelength enables spatial multiplexing in line-of-sight environments, potentially resulting in point-to-point outdoor wireless links at optical speeds (40 Gbps) using bandwidths of the order of 5 GHz. Directional multihop networking: Indoor Gigabit wireless links based on 60 GHz unlicensed spectrum are subject to disruption due to line-of-sight blockage by obstacles such as furniture and humans. We show that a multihop architecture with a small number of relays assures full network connectivity. All-digital multiGigabit baseband: Since high-speed analog-to- digital conversion (ADC) is costly and power-hungry, in order to design all-digital baseband processing that can be implemented inexpensively by riding Moore's law, we must be able to perform signal processing with sloppy ADC. We discuss Shannon-theoretic limits and signal processing challenges in this context.
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多千兆毫米波通信:系统概念和挑战
60-95千兆赫的毫米波频段提供了大量未经许可和半未经许可的频谱,这很可能构成无线通信的下一次革命的基础,在这场革命中,无线将赶上有线。随着硅工艺的快速扩展,射频前端的低成本实现即将出现。现在的一个关键挑战是将这些突破转化为创新的系统概念。我们在这里回顾三个这样的概念。毫米波MIMO:小载波波长可在视线环境中实现空间多路复用,可能导致使用5 GHz带宽的光学速度(40 Gbps)的点对点户外无线链路。定向多跳网络:基于60 GHz未经许可频谱的室内千兆无线链路容易因家具和人等障碍物阻挡视线而中断。我们证明了具有少量中继的多跳架构可以确保完整的网络连接。全数字多千兆基带:由于高速模数转换(ADC)是昂贵和耗电的,为了设计全数字基带处理,可以通过摩尔定律实现低成本,我们必须能够使用粗糙的ADC进行信号处理。我们在此背景下讨论香农理论极限和信号处理挑战。
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