4.7 Article

60 GHz Resonant Photoreceiver With an Integrated SiGe HBT Amplifier for Low Cost Analog Radio-Over-Fiber Links

Journal

JOURNAL OF LIGHTWAVE TECHNOLOGY
Volume 39, Issue 16, Pages 5307-5313

Publisher

IEEE-INST ELECTRICAL ELECTRONICS ENGINEERS INC
DOI: 10.1109/JLT.2021.3095522

Keywords

BiCMOS integrated circuits; microwave photonics; microwave amplifiers; millimeter wave radar; millimeter wave communication

Funding

  1. ERC Advanced Grant ATTO Project [695495, 761989]

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The proposed analog radio-over-fiber photoreceiver based on a resonant narrowband transimpedance low noise amplifier (TILNA) is designed for low-cost and low-power remote radio heads in the unlicensed 60GHz band. This photoreceiver offers improved gain with resonant matching and has shown success in achieving high-speed data transmission over standard single-mode fiber.
An analog radio-over-fiber photoreceiver based on a resonant narrowband transimpedance low noise amplifier (TILNA) is proposed and demonstrated for use in low-cost and low-power remote radio heads for distributed antenna systems in the unlicensed 60GHzband. The amplifier is designed to present a conjugate matched impedance to a wirebonded photodiode where the input impedance has a real part of 10 Omega while the output impedance is matched towards 50 Omega. Fabricated in a 55 nm SiGe BiCMOS technology, the TILNA features a three stage common emitter low noise amplifier with 17 dB of gain, a 3.4 dB noise figure, an output 1-dB compression point of 8 dBm and low power consumption of 33.6 mW while occupying only 0.25 mm(2) of chip space including pads. The photoreceiver, formed by the TILNA and a wirebonded InP UTC photodiode, offers 29 dB higher gain than a 50 Omega terminated reference photodiode where 11 dB improvement is provided by resonant matching. Experimental results showthat the proposed photoreceiver has achieved up to 20Gbps C-band transmission of complex modulated waveforms over 5km of standard single-mode fiber using 4 Gbaud QAM32 with an RMS EVM of 11.5%.

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