法布里-珀罗干涉仪
谐振器
分光计
CMOS芯片
计算机科学
物理
材料科学
光学
光电子学
波长
作者
Chunyu You,Xing Li,Yuhang Hu,Ningge Huang,Yang Wang,Binmin Wu,Guobang Jiang,Jiayuan Huang,Ziyu Zhang,Bingxin Chen,Yue Wu,Junhan Liu,Xiang‐Zhong Chen,Enming Song,Jizhai Cui,Peng Zhou,Zengfeng Di,Zhenghua An,Gaoshan Huang,Yongfeng Mei
标识
DOI:10.1073/pnas.2403950121
摘要
Miniaturized reconstructive spectrometers play a pivotal role in on-chip and portable devices, offering high-resolution spectral measurement through precalibrated spectral responses and AI–driven reconstruction. However, two key challenges persist for practical applications: artificial intervention in algorithm parameters and compatibility with complementary metal-oxide-semiconductor (CMOS) manufacturing. We present a cutting-edge miniaturized reconstructive spectrometer that incorporates a self-adaptive algorithm referenced with Fabry–Perot resonators, delivering precise spectral tests across the visible range. The spectrometers are fabricated with CMOS technology at the wafer scale, achieving a resolution of ~2.5 nm, an average wavelength deviation of ~0.27 nm, and a resolution-to-bandwidth ratio of ~0.46%. Our approach provides a path toward versatile and robust reconstructive miniaturized spectrometers and facilitates their commercialization.
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