一种用于振动测量的微型套头光学悬臂

J. Li, S. M. Xu, J. Sun, Y. Q. Tang, F. Dong
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引用次数: 2

摘要

在本文中,我们提出了利用激光加工技术设计和制造附着在标准单模光纤末端的聚合物微悬臂的技术。聚合物悬臂是通过激光微加工将聚合物片制成所需的形状,然后通过光刻胶作为平面支撑和粘合层粘合在陶瓷套圈的顶部。所得到的悬臂尺寸为~ 1.2 mm长,~ 300 μm宽,25 μm厚。在这项工作中,我们描述了单个传感器的制造,但是该过程可以扩展到大规模生产。采用基于DFB激光的相位探测系统对振动信号引起的悬臂振动进行监测。概念验证实验表明,该传感器能够检测频率范围为0-800Hz的振动信号。通过使用更薄的聚合物薄片和加工更长的悬臂梁,可以将频率响应范围扩展到几kHz。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A miniaturized ferrule-top optical cantilever for vibration measurement
In this paper, we propose techniques to design and fabricate polymer micro-cantilevers for attachment onto the end of standard single mode fibers using laser machining. The polymer cantilever is fabricated by laser micro-machining a sheet of polymer into the required shape and then bonded onto the top of a ceramic ferrule by photo resist as a flat supporting and bonding layer. The dimension of resulting cantilever is ∼1.2 mm long, ∼300 μm wide, and 25 μm thick. In this work we describe the fabrication of single sensors, however the process could be scaled to offer a route towards mass production. Cantilever vibration caused by vibration signal are monitored by a DFB laser based phase interrogation system. Proof-of-concept experiments show that the sensor is capable of detecting vibration signal with a frequency range of 0–800Hz. By using thinner polymer sheet and machining longer cantilever, the frequency response range can be extended up to a few kHz.
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