Optical Path Difference Modulation Method Based on the Kerr Effect

IF 2.2 Q3 ENGINEERING, ELECTRICAL & ELECTRONIC IEEE Sensors Letters Pub Date : 2024-11-01 DOI:10.1109/LSENS.2024.3490658
Qihao Zeng;Mingkun Wang;Yupeng Zhang;Hongyi Lin;Wei Qiao;Dong Sun
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Abstract

Optical path difference is commonly used to adjust the signal of coherent light. Current optical systems typically adjust the transmission distance of the beam or the refractive index of the medium to change the optical path. However, the former approach often involves complex operations, risks of mechanical damage, and difficulties in adjustment, while the latter has a limited adjustment range. This letter proposes a Kerr-fiber-based optical path difference adjustment system. In this system, the Kerr liquid inside the fiber induces a change in birefringence due to the electric field's polarization effect, enabling rapid optical path adjustment. The system adjusts the effective refractive index by applying an external voltage: a 10-V voltage induces a one-cycle change in interference fringes, and increasing the voltage to 50 V results in a 0.1 change in the refractive index, with a minimum adjustment precision of 0.01. Experimental results demonstrate a millisecond-level response rate for the overall system. Comparative tests show that this method is similar to classic adjustment methods but offers simplified operation. In addition, the system exhibits enhanced stability in scenarios requiring rapid and precise adjustments.
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基于克尔效应的光路差调制方法
光路差通常用于调整相干光的信号。目前的光学系统通常通过调整光束的传输距离或介质的折射率来改变光路。然而,前一种方法往往涉及复杂的操作、机械损坏风险和调整困难,而后一种方法的调整范围有限。本文提出了一种基于克尔光纤的光路差调整系统。在该系统中,光纤内部的克尔液体会因电场的偏振效应而引起双折射变化,从而实现快速光路调整。该系统通过施加外部电压来调整有效折射率:10 V 的电压会引起干涉条纹一个周期的变化,而将电压提高到 50 V 则会导致折射率发生 0.1 的变化,最低调整精度为 0.01。实验结果表明,整个系统的响应速度达到毫秒级。对比测试表明,这种方法与传统的调节方法相似,但操作更简便。此外,在需要快速精确调节的情况下,该系统也表现出更高的稳定性。
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来源期刊
IEEE Sensors Letters
IEEE Sensors Letters Engineering-Electrical and Electronic Engineering
CiteScore
3.50
自引率
7.10%
发文量
194
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