波分复用技术中多通道光纤传感器的信号传输

Zdeněk Vyležich, M. Kyselak, J. Vavra
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引用次数: 0

摘要

本文论证了采用分偏振和波分复用技术,通过光单模路由传输多路光纤偏振传感器信号的可能性。光纤偏振传感器可以放置在爆炸可能性高的危险环境中,有化学气体的环境中,以及所有需要轻便、惰性和非电气元件来监测温度变化的地方。偏振分复用,在一个波长下工作,由于信号的正交性,传输数据的体积成倍增加。该技术允许传输传感器的反应,但单模光路由于其偏振不保持特性而对这些信号产生负面影响。最后信号极化是随机变化的,导致极化解复用不正确。本文通过在终端连接一个偏振控制器来解决这个问题,并讨论了波分复用技术对未来应用的影响。波长1550.12 nm用于传感器供电,波长1556.56 nm、1555.75 nm和1554.94 nm用于证明波分复用的独立性。电路在恒温24°C的实验室中进行测试,使用0°C、48°C的盛水容器,用摆锤摆动冷却至0°C。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Signal Transmission of Multichannel Fiber-optic Sensors in Wavelength-division Multiplexing Technology
The article proves the possibility of signal transmission of multichannel fiber-optic polarization sensors via an optical single-mode route, with using polarization-division and wavelength-division multiplexing techniques. Fiber-optic polarization sensors can be placed in dangerous environments with the high possibility of explosion, with chemical vapours and at all places where it is necessary to have lightweight, inertness and non-electric elements for monitoring temperature changes. Polarization-division multiplexing, operating at one wavelength, multiplies the volume of transmitted data due to the orthogonality of signals. This technique allows transmission of the sensor's reaction, but single-mode optical route negatively affects these signals by its polarization non-maintaining properties. Signal polarization is randomly changed in the end, which causes incorrect polarization demultiplexing. This article solves the problem by connecting a polarization controller at the end and deals with the influence of wavelength-division multiplexing techniques for future utilization. Wavelength 1550.12 nm was used for power-supply of the sensor and wavelengths 1556.56 nm, 1555.75 nm and 1554.94 nm were used for proof of independence of wavelength-division multiplexing. The circuit was tested in a laboratory with a constant temperature of 24 °C by using a container of water at 0 °C, 48 °C, and pendulum swinging with a bob cooled to 0 °C.
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