The Micro-control Refractive Index Sensor of Dual-metal Antiresonance Optical Fiber

Boyao Li, Tianrong Huang
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Abstract

With the development of artificial intelligence for complex environment monitoring technology, new sensors based on the combination of diversified customized optical fiber waveguides and functional materials have become an important solution to meet the diverse perceptions in complex environments. Then, for solving the concentration monitoring problem of multi-channel microfluidics, the bimetallic anti-resonant fiber structure is proposed in this paper, which realize the multi-band microfluidic sensor of bimetallic reverse resonant fiber. Theoretical results show that the sensor achieves the surface plasma resonance (SPR) coupling of the core mode and the metal film at multiple bands of 1450 nm, 1650 nm and 1700 nm, then uses this feature to achieve refractive index sensing in three bands. The corresponding results have potential applications in the field of multimetallic microstructure fiber fluid sensing in the air core, and provide new ideas for the design of multi-band SPR resonance sensors, which are expected to be applied in the field of biochemical monitoring.
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双金属抗共振光纤微控制折射率传感器
随着人工智能对复杂环境监测技术的发展,基于多样化定制光纤波导与功能材料相结合的新型传感器已成为满足复杂环境中多样化感知的重要解决方案。然后,为了解决多通道微流体浓度监测问题,本文提出了双金属抗谐振光纤结构,实现了双金属反谐振光纤的多波段微流体传感器。理论结果表明,该传感器在1450 nm、1650 nm和1700 nm的多个波段实现了核心模式与金属薄膜的表面等离子体共振耦合,并利用该特性实现了三个波段的折射率传感。相应的研究结果在多金属微结构光纤流体传感领域具有潜在的应用前景,并为多波段SPR谐振传感器的设计提供了新的思路,有望在生化监测领域得到应用。
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