用紧凑的全电子太赫兹源和探测器系统实现无线数据传输

IF 0.3 4区 物理与天体物理 Q4 PHYSICS, MULTIDISCIPLINARY
A. Cesiul, K. Ikamas, D. B. But, I. Morkunaitė, T. Lisauskas, A. Lisauskas
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引用次数: 2

摘要

本文提出了一种工作在250ghz频率下的全电子无线链路。该系统的关键元件是采用65nm互补金属氧化物半导体技术(CMOS)实现的压控谐波振荡器和采用90nm CMOS实现的带谐振天线耦合场效应晶体管的准光学探测器。该源针对252ghz的三次谐波发射进行了优化,辐射功率高达-11 dBm(参考一毫瓦的分贝)水平。该探测器的最大谐振频率为254 GHz,带宽为25%,最小光噪声等效功率为22 pW/√−H−z。我们采用一种开关键控技术进行数据编码,并演示了从0.4到18米距离的数字信号传输。在0.4米的距离和32 MHz的调制频率下,我们实现了15.9 dB的信噪比。组合通信链路信道容量达到266mbit /s。然而,它受到外部电子元件-放大器和调制器带宽的限制。实现最先进的高频电路应该允许直接将吞吐量扩展到10 Gbit/s。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Towards wireless data transmission with compact all-electronic THz source and detector system
This paper presents a fully-electronic wireless link operating at the 250 GHz frequency. The key elements of the developed system are the voltage-controlled harmonic oscillator implemented in 65 nm complementary metal-oxide-semiconductor technology (CMOS) and a quasi-optical detector with a resonantantenna- coupled field-effect transistor completed in 90 nm CMOS. The source is optimized for the third harmonic emission at 252 GHz with radiated power reaching up to –11 dBm (decibels with reference to one milliwatt) level. The detector has a resonance maximum of 254 GHz with a bandwidth of 25% and a minimal optical noise equivalent power of 22 pW/√−H−z . We employ an on-off keying technique for data coding and demonstrate digital signal transmission from 0.4 to 18 m distances. At 0.4 m distance and modulation frequency of 32 MHz, we achieve a 15.9 dB signal-to-noise ratio. The channel capacity of assembled communication link reaches 266 Mbit/s. However, it is limited by external electronic components – the amplifier and the modulator bandwidths. Implementing state-of-the-art high-frequency circuits should allow directly scaling the throughput to 10 Gbit/s.
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来源期刊
Lithuanian Journal of Physics
Lithuanian Journal of Physics 物理-物理:综合
CiteScore
0.90
自引率
16.70%
发文量
21
审稿时长
>12 weeks
期刊介绍: The main aim of the Lithuanian Journal of Physics is to reflect the most recent advances in various fields of theoretical, experimental, and applied physics, including: mathematical and computational physics; subatomic physics; atoms and molecules; chemical physics; electrodynamics and wave processes; nonlinear and coherent optics; spectroscopy.
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