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A 220-GHz Sliding-IF Quadrature Transmitter and Receiver Chipset for High Data Rate Communication in 0.13-µm SiGe BiCMOS

This article presents a fully integrated 220 GHz sliding-intermediate frequency (sliding-IF) quadrature transmitter (Tx) and receiver (Rx) chipset supporting high-order modulation schemes in a 0.13-[Formula Omitted] SiGe bipolar junction transistor and the complementary metal-oxide-semiconductor tra...

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Published in:IEEE journal of solid-state circuits 2023-07, Vol.58 (7), p.1913-1927
Main Authors: Li, Zekun, Chen, Jixin, Li, Huanbo, Yu, Jiayang, Lu, Yuxiang, Zhou, Rui, Chen, Zhe, Hong, Wei
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cited_by cdi_FETCH-LOGICAL-c1843-f0e73fbd004737bb4a1dc8b2bb3e020e42cc9d3885af125d956f43b631df908c3
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container_title IEEE journal of solid-state circuits
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creator Li, Zekun
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Li, Huanbo
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Zhou, Rui
Chen, Zhe
Hong, Wei
description This article presents a fully integrated 220 GHz sliding-intermediate frequency (sliding-IF) quadrature transmitter (Tx) and receiver (Rx) chipset supporting high-order modulation schemes in a 0.13-[Formula Omitted] SiGe bipolar junction transistor and the complementary metal-oxide-semiconductor transistor (BiCMOS) technology with [Formula Omitted] GHz. For supporting the sliding-IF scheme, a 55-GHz frequency tripler, a low-loss miniature power splitter, and a 165-GHz high-efficiency frequency tripler are employed for the local oscillator (LO) generator of the transceiver (TRx). By using the sliding-IF architecture, the power consumption of the LO generator in the sub-terahertz (sub-THz) band is effectively reduced. The proposed miniature power splitter occupies a small area, which is flexible for Tx and Rx layout arrangements. In the Tx part, a 220-GHz high-gain, high-linearity power amplifier (PA) is employed to enhance the conversion gain (CG) and output power of the Tx. Two up-conversion mixers are introduced for double conversion in sliding-IF architecture. The Tx exhibits 42-GHz RF bandwidth, 38-dB CG, and 8.5-dBm saturated output power ([Formula Omitted]). On the Rx side, a 220-GHz low noise amplifier (LNA) with a noise-reduction technique is employed to reduce the noise figure (NF) of the Rx. A double-conversion Gilbert-like topology is proposed for the down-conversion mixer which saves power consumption and reduces the NF. A baseband amplifier (BBA) follows the down-conversion mixer to improve the dynamic range. The Rx exhibits 31-GHz RF bandwidth, 48-dB CG with 25-dB gain control, and 11-dB single sideband (SSB) NF. Furthermore, on-chip slot antennas are adopted in the Tx and Rx to reduce the losses introduced by the interconnection between off-chip antennas and RF front-end devices. The antenna combined with a 20-mm radius silicon lens provides high directivity. Wireless transmission experiments demonstrate 11.2/2.4 Gbps data rates with 16-QAM/64-QAM modulation scheme over 0.2 m. The Tx and Rx consume around 640 and 495 mW, respectively.
doi_str_mv 10.1109/JSSC.2023.3236621
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For supporting the sliding-IF scheme, a 55-GHz frequency tripler, a low-loss miniature power splitter, and a 165-GHz high-efficiency frequency tripler are employed for the local oscillator (LO) generator of the transceiver (TRx). By using the sliding-IF architecture, the power consumption of the LO generator in the sub-terahertz (sub-THz) band is effectively reduced. The proposed miniature power splitter occupies a small area, which is flexible for Tx and Rx layout arrangements. In the Tx part, a 220-GHz high-gain, high-linearity power amplifier (PA) is employed to enhance the conversion gain (CG) and output power of the Tx. Two up-conversion mixers are introduced for double conversion in sliding-IF architecture. The Tx exhibits 42-GHz RF bandwidth, 38-dB CG, and 8.5-dBm saturated output power ([Formula Omitted]). On the Rx side, a 220-GHz low noise amplifier (LNA) with a noise-reduction technique is employed to reduce the noise figure (NF) of the Rx. A double-conversion Gilbert-like topology is proposed for the down-conversion mixer which saves power consumption and reduces the NF. A baseband amplifier (BBA) follows the down-conversion mixer to improve the dynamic range. The Rx exhibits 31-GHz RF bandwidth, 48-dB CG with 25-dB gain control, and 11-dB single sideband (SSB) NF. Furthermore, on-chip slot antennas are adopted in the Tx and Rx to reduce the losses introduced by the interconnection between off-chip antennas and RF front-end devices. The antenna combined with a 20-mm radius silicon lens provides high directivity. Wireless transmission experiments demonstrate 11.2/2.4 Gbps data rates with 16-QAM/64-QAM modulation scheme over 0.2 m. 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A double-conversion Gilbert-like topology is proposed for the down-conversion mixer which saves power consumption and reduces the NF. A baseband amplifier (BBA) follows the down-conversion mixer to improve the dynamic range. The Rx exhibits 31-GHz RF bandwidth, 48-dB CG with 25-dB gain control, and 11-dB single sideband (SSB) NF. Furthermore, on-chip slot antennas are adopted in the Tx and Rx to reduce the losses introduced by the interconnection between off-chip antennas and RF front-end devices. The antenna combined with a 20-mm radius silicon lens provides high directivity. Wireless transmission experiments demonstrate 11.2/2.4 Gbps data rates with 16-QAM/64-QAM modulation scheme over 0.2 m. 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For supporting the sliding-IF scheme, a 55-GHz frequency tripler, a low-loss miniature power splitter, and a 165-GHz high-efficiency frequency tripler are employed for the local oscillator (LO) generator of the transceiver (TRx). By using the sliding-IF architecture, the power consumption of the LO generator in the sub-terahertz (sub-THz) band is effectively reduced. The proposed miniature power splitter occupies a small area, which is flexible for Tx and Rx layout arrangements. In the Tx part, a 220-GHz high-gain, high-linearity power amplifier (PA) is employed to enhance the conversion gain (CG) and output power of the Tx. Two up-conversion mixers are introduced for double conversion in sliding-IF architecture. The Tx exhibits 42-GHz RF bandwidth, 38-dB CG, and 8.5-dBm saturated output power ([Formula Omitted]). On the Rx side, a 220-GHz low noise amplifier (LNA) with a noise-reduction technique is employed to reduce the noise figure (NF) of the Rx. A double-conversion Gilbert-like topology is proposed for the down-conversion mixer which saves power consumption and reduces the NF. A baseband amplifier (BBA) follows the down-conversion mixer to improve the dynamic range. The Rx exhibits 31-GHz RF bandwidth, 48-dB CG with 25-dB gain control, and 11-dB single sideband (SSB) NF. Furthermore, on-chip slot antennas are adopted in the Tx and Rx to reduce the losses introduced by the interconnection between off-chip antennas and RF front-end devices. The antenna combined with a 20-mm radius silicon lens provides high directivity. Wireless transmission experiments demonstrate 11.2/2.4 Gbps data rates with 16-QAM/64-QAM modulation scheme over 0.2 m. The Tx and Rx consume around 640 and 495 mW, respectively.</abstract><cop>New York</cop><pub>The Institute of Electrical and Electronics Engineers, Inc. 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subjects Amplification
Bandwidths
Bipolar transistors
Chips (electronics)
CMOS
Directivity
High gain
Intermediate frequencies
Low noise
Mixers
Noise reduction
Power amplifiers
Power consumption
Power management
Power splitters
Quadrature amplitude modulation
Quadratures
Semiconductors
Silicon germanides
Single sideband transmission
Sliding
Slot antennas
Topology
Transistors
title A 220-GHz Sliding-IF Quadrature Transmitter and Receiver Chipset for High Data Rate Communication in 0.13-µm SiGe BiCMOS
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