材料科学
光调制器
调制(音乐)
光电子学
电光调制器
相位调制
调幅
信号(编程语言)
光子学
光学
光通信
光调制幅度
超细纤维
光放大器
频率调制
带宽(计算)
电信
物理
计算机科学
相位噪声
激光器
声学
复合材料
程序设计语言
作者
Zexin Zhou,Miao Yan,Hu Liang,Jie Yu,Qidong Liu,Yufeng Song,Jianhua Ji,Zhenhong Wang,Ke Wang
出处
期刊:Sensors
[Multidisciplinary Digital Publishing Institute]
日期:2024-08-11
卷期号:24 (16): 5190-5190
摘要
Due to the ability of optical modulators to achieve rapid modulation of optical signals, meeting the demands of high-speed data transmission, modulators based on different novel nanomaterials have become one of the research hotspots over the past dacade. Recently, TiN/Ti3C2 heterojunction exhibits highly efficient thermo-optic performance and extremely strong stability. Therefore, we have demonstrated an all-optical modulator based on the principle of Michelson interference and the thermo-optic effect in this paper. The modulator employs a TiN/Ti3C2 heterojunction-coated microfiber (THM) and further demonstrates its ability to generate phase shifts through an ASE light source. The modulator, with a phase shift slope of 0.025π/mW, can also convert the phase shifts of signal light into amplitude modulation through Michelson interference. The fixed signal light wavelength is 1552.09 nm, and the modulation depth is stable at about 26.4 dB within a wavelength detuning range of −10 to 6 nm; The waveforms of signal light at modulation rates of 500 Hz, 1000 Hz, 2000 Hz, and 3000 Hz were tested, and a 3 dB modulation bandwidth of 2 kHz was measured. The all-optical modulator based on THM has the advantages of high efficiency and stability and has broad application prospects in the fields of all-optical signal processing and high-speed optical communication.
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