用于火星表面任务的几乎全数字近距离收发器

IF 6.9 Q1 ENGINEERING, ELECTRICAL & ELECTRONIC
Adrian Tang;Emmanuel Decrossas;Zaid Towfic;Andrew Daniel;Joshua Miller;Carlos Y. Villalpando;Nacer Chahat;Yanghyo Kim
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引用次数: 0

摘要

本文介绍了一种数字近程收发器,用于下一代在深空探测超高频频段(390-450 兆赫)运行的小型火星表面探测机器人任务。所开发的收发器几乎采用了全数字架构,只有一个可变增益前置放大器位于接收器模数转换器之前。收发器的所有其他功能(滤波、上变频、下变频)都是通过数字信号处理电路实现的。收发器以每秒 1280 MS 的速率对 UHF 频段进行高度超采样,从而使适度位深的数据转换器(10 位发送和 7 位接收)获得更大的动态范围。收发器需要一个外部基带处理器,通过软件或可编程逻辑实现信道编码、链路和网络层操作。它还包含独立的呼叫功能,当在可编程带宽内接收到呼叫信号时,无需基带处理即可唤醒下游航空电子设备。CMOS 收发器芯片采用 65 纳米 CMOS 技术,总功耗为 356 mW,这还不包括需要的外部 III-V 低噪声放大器和功率放大器。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
An Almost-All Digital Proximity Transceiver for Mars Surface Missions
This article presents a digital proximity transceiver for next the generation of small Mars robotic surface exploration missions operating at the deep space exploration UHF band (390–450 MHz). The developed transceiver adopts an almost all-digital architecture, except for a single variable gain pre-amplifier placed before the receiver ADC. All other functions of the transceiver (filtering, up-conversion, down-conversion) are implemented as digital signal processing circuitry. The transceiver highly oversamples the UHF band at a rate of 1280 MS/s allowing additional dynamic range to be obtained with modest bit-depth data converters (10-bit transmit and 7-bit receive). The transceiver expects an external baseband processor implemented in software or programmable logic for Channel-coding, Link and Network-layer operations. It also contains a stand-alone hailing function that allows it to wake up downstream avionics without requiring baseband processing when a hailing signal is received within a programmable bandwidth. The CMOS transceiver chip is implemented in a 65 nm CMOS technology and consumes a total power of 356 mW, not counting the need for an external III-V Low Noise Amplifier and Power Amplifier.
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来源期刊
CiteScore
10.70
自引率
0.00%
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审稿时长
8 weeks
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