13.5一个0.35至2.6 ghz的多电平失相发射机,带有数字插值相位调制器,可实现高达400MHz的瞬时带宽

M. Kosunen, Jerry Lemberg, Mikko Martelius, Enrico Roverato, Tero Nieminen, Mikko Englund, K. Stadius, L. Anttila, J. Pallonen, Mikko Valkama, J. Ryynänen
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引用次数: 1

摘要

先进的无线无线电标准对基站发射机的带宽、频率范围和可重构性提出了严格的要求。最近,淘汰概念显示出宽带的前景,同时利用广泛利用轨对轨信号的过程扩展优势。最近的同相发射机设计通常侧重于功率放大器(PA)和功率合成器的实现,而忽略了相位调制器[1,2]。此外,先前报道的集成数字相位调制器的发射机仅显示出高达40MHz的带宽[3,4],尽管在10GHz载波频率下使用基于传统iq - dac的相位调制器已经证明了133MHz的带宽[5]。因此,能够在现有蜂窝频段上以数百兆赫带宽调制的数字密集型同相发射机尚未发表。为了解决上述挑战,本文介绍了一种具有四个幅度电平的多电平失相发射机,包括基于数字插值相位调制器概念的第一个原型实现[6]。该发射机的目标是5G皮cell基站,并已被验证可在高达400MHz的瞬时带宽下运行。此外,所开发的相位调制器通过引入数字载波频率生成,消除了对复杂的片上频率合成器的需求,演示在0.35和2.6GHz之间,同时使用单个1.8GHz参考时钟。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
13.5 A 0.35-to-2.6GHz multilevel outphasing transmitter with a digital interpolating phase modulator enabling up to 400MHz instantaneous bandwidth
Advanced wireless radio standards set stringent requirements on the bandwidth, frequency range and reconfigurability of base-station transmitters. Recently, the outphasing concept has shown promise of wide bandwidth while taking advantage of process scaling with extensive exploitation of rail-to-rail signaling. Recent outphasing transmitter designs have often focused on power-amplifier (PA) and power-combiner implementations while omitting the phase modulator [1,2]. Moreover, previously reported transmitters with integrated digital phase modulators have only shown bandwidths up to 40MHz [3,4], although 133MHz has been demonstrated at 10GHz carrier frequency utilizing phase modulators based on conventional IQ-DACs [5]. Thus, digital-intensive outphasing transmitters capable of modulation with hundreds of MHz bandwidth at existing cellular frequency bands have not yet been published. To address the aforementioned challenge, this paper introduces a multilevel outphasing transmitter with four amplitude levels, including the first prototype implementation based on the digital interpolating phase modulator concept [6]. The transmitter is targeted for 5G picocell base stations and has been verified to operate with instantaneous bandwidth up to 400MHz. In addition, the developed phase modulator eliminates the need for complex on-chip frequency synthesizers by introducing digital carrier frequency generation, demonstrated between 0.35 and 2.6GHz, while utilizing a single 1.8GHz reference clock.
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