32-Channel low-noise lock-in ASIC for non-invasive light detection in silicon photonics

P. Ciccarella, M. Carminati, G. Ferrari, F. Morichetti, M. Sampietro
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Abstract

In order to address the challenges posed by the growing complexity of silicon photonic chips integrating more and more photonics devices, which require tuning and reconfiguration, a 32-channel 0.35 μm CMOS ASIC for a recently developed in-line non-invasive light power monitor has been designed. By combining a low-noise front-end with a carefully optimized low-parasitic multiplexer and with two square-wave multipliers (real and imaginary components) the waveguide admittance (affected by the local light power) can be measured on chip over a 100 MHz bandwidth with 10 pS resolution in four simultaneous channels, suitable for closed-loop stabilization of photonic devices such as microring resonators. The results of the chip experimental characterization here reported demonstrate dramatic miniaturization, a 20-fold improvement in resolution and a 10-fold bandwidth extension with respect to a state-of-the-art bench-top instrumentation.
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用于硅光子学中非侵入性光检测的32通道低噪声锁定ASIC
为了解决集成越来越多的光子器件的硅光子芯片日益复杂所带来的挑战,需要调谐和重新配置,设计了一种32通道0.35 μm CMOS ASIC,用于最近开发的直列非侵入式光功率监视器。通过将低噪声前端与精心优化的低寄生复用器和两个方波复用器(实部和虚部)相结合,波导导纳(受本地光功率影响)可以在芯片上以100 MHz带宽以10 pS分辨率在四个同时通道上测量,适用于微环谐振器等光子器件的闭环稳定。本文报道的芯片实验表征结果表明,与最先进的台式仪器相比,该芯片的小型化程度显著提高,分辨率提高了20倍,带宽延长了10倍。
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