Ka -/ K -Band Frequency-Reconfigurable Single-Input Differential-Output Low-Noise Amplifier for 5G Applications

This letter describes the design, analysis, and performance measurements of a Ka -and K -band frequency-reconfigurable single-input differential-output (SIDO) low-noise amplifier (LNA) with a compact core size of 0.157 mm ^2 . At 28 and 39 GHz, respectively, the noise figures of the LNA were 2.8 a...

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Veröffentlicht in:IEEE microwave and wireless technology letters (Print) 2023-09, Vol.33 (9), p.1-4
Hauptverfasser: Chen, Hao-Hsuan, Tsai, Zuo-Min
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description This letter describes the design, analysis, and performance measurements of a Ka -and K -band frequency-reconfigurable single-input differential-output (SIDO) low-noise amplifier (LNA) with a compact core size of 0.157 mm ^2 . At 28 and 39 GHz, respectively, the noise figures of the LNA were 2.8 and 4.4 dB; it had high differential gains of 20.1 and 14.9 dB. The proposed LNA was fabricated using the 65-nm CMOS process. The LNA includes a two-stage common-source (CS) buffer amplifier to achieve low noise and an active balun for converting single-ended signals into differential signals. Moreover, a substrate-shield-based inductor and tunable matching networks were used to achieve the frequency reconfiguration function of the LNA. The gain and phase imbalances were 0.3 and 0.2 dB, and 5.4 ^\circ and 6 ^\circ at 28 and 39 GHz, respectively. Compared with published multiband SIDO LNAs, the proposed amplifier achieved higher figures of merit (FoMs) of 3.52 and 1.77 while maintaining a compact core size. Therefore, the LNA is suitable for K -and Ka -band 5G communication applications.
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At 28 and 39 GHz, respectively, the noise figures of the LNA were 2.8 and 4.4 dB; it had high differential gains of 20.1 and 14.9 dB. The proposed LNA was fabricated using the 65-nm CMOS process. The LNA includes a two-stage common-source (CS) buffer amplifier to achieve low noise and an active balun for converting single-ended signals into differential signals. Moreover, a substrate-shield-based inductor and tunable matching networks were used to achieve the frequency reconfiguration function of the LNA. The gain and phase imbalances were 0.3 and 0.2 dB, and 5.4<inline-formula> <tex-math notation="LaTeX">^\circ</tex-math> </inline-formula> and 6<inline-formula> <tex-math notation="LaTeX">^\circ</tex-math> </inline-formula> at 28 and 39 GHz, respectively. Compared with published multiband SIDO LNAs, the proposed amplifier achieved higher figures of merit (FoMs) of 3.52 and 1.77 while maintaining a compact core size. 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At 28 and 39 GHz, respectively, the noise figures of the LNA were 2.8 and 4.4 dB; it had high differential gains of 20.1 and 14.9 dB. The proposed LNA was fabricated using the 65-nm CMOS process. The LNA includes a two-stage common-source (CS) buffer amplifier to achieve low noise and an active balun for converting single-ended signals into differential signals. Moreover, a substrate-shield-based inductor and tunable matching networks were used to achieve the frequency reconfiguration function of the LNA. The gain and phase imbalances were 0.3 and 0.2 dB, and 5.4<inline-formula> <tex-math notation="LaTeX">^\circ</tex-math> </inline-formula> and 6<inline-formula> <tex-math notation="LaTeX">^\circ</tex-math> </inline-formula> at 28 and 39 GHz, respectively. Compared with published multiband SIDO LNAs, the proposed amplifier achieved higher figures of merit (FoMs) of 3.52 and 1.77 while maintaining a compact core size. 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At 28 and 39 GHz, respectively, the noise figures of the LNA were 2.8 and 4.4 dB; it had high differential gains of 20.1 and 14.9 dB. The proposed LNA was fabricated using the 65-nm CMOS process. The LNA includes a two-stage common-source (CS) buffer amplifier to achieve low noise and an active balun for converting single-ended signals into differential signals. Moreover, a substrate-shield-based inductor and tunable matching networks were used to achieve the frequency reconfiguration function of the LNA. The gain and phase imbalances were 0.3 and 0.2 dB, and 5.4<inline-formula> <tex-math notation="LaTeX">^\circ</tex-math> </inline-formula> and 6<inline-formula> <tex-math notation="LaTeX">^\circ</tex-math> </inline-formula> at 28 and 39 GHz, respectively. Compared with published multiband SIDO LNAs, the proposed amplifier achieved higher figures of merit (FoMs) of 3.52 and 1.77 while maintaining a compact core size. Therefore, the LNA is suitable for <inline-formula> <tex-math notation="LaTeX">K</tex-math> </inline-formula>-and <inline-formula> <tex-math notation="LaTeX">Ka</tex-math> </inline-formula>-band 5G communication applications.]]></abstract><cop>Piscataway</cop><pub>IEEE</pub><doi>10.1109/LMWT.2023.3288625</doi><tpages>4</tpages><orcidid>https://orcid.org/0000-0001-9566-769X</orcidid><orcidid>https://orcid.org/0000-0002-4182-3762</orcidid><oa>free_for_read</oa></addata></record>
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subjects 5G mobile communication
Amplification
Amplifiers
CMOS
Figure of merit
Frequency measurement
Inductance
Inductors
Low noise
low-noise amplifier (LNA)
Metals
monolithic microwave integrated circuit
multiband
Noise levels
Phase matching
Reconfiguration
single-input differential-output (SIDO)
substrate-shield-based inductor
Substrates
Switches
Transmission line measurements
title Ka -/ K -Band Frequency-Reconfigurable Single-Input Differential-Output Low-Noise Amplifier for 5G Applications
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