SPR-based PCF sensors for next generation research: A review

IF 4.6 2区 物理与天体物理 Q2 MATERIALS SCIENCE, MULTIDISCIPLINARY
Kowsalya Shanmugam, Revathi Senthil, Tanmaya Kumar Das
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引用次数: 0

Abstract

The article illustrates the survey of Surface plasmon resonance-based photonic crystal fiber sensors related to various structural analysis and the complexity analysis of recently used approaches, such as Deep learning/Machine learning techniques used in the real-time applications. The study illustrates about the fabrications, applications and types of modeling techniques which evolved in the Plasmonic-Photonics based sensors. It examines the type of sensing approaches utilized based on the placement of the analyte in the core (Internal Sensing) or in the cladding (External Sensing). The study thus focuses on numerical analysis, a commonly used approach in PCF-based SPR sensors, is namely known as the Finite Element Method (FEM), which splits the involved geometry into the finest parts of interrelated elements to optimize the sensing parameters and also the article gives the variations of FEM from Data-driven methods. Surface plasmon resonance-based biosensors have been used in various biological analyses, in several ideal cases, such as urine analysis, finding blood components with different parameters, determining the harmful effects of cancer diseases and evaluating malaria by changing the refractive index of the blood samples, have been highlighted in the clinical validation part. This paper also illustrates the concepts of frequently used designs, likely the D-shaped design with Single and Dual-open loops, interpreted for optimizing high sensitivity value. The advancement techniques, such as Deep learning/Machine learning and Interrogation techniques, which are involved in the SPR-based PCF sensor designs with various approaches of Neural network and also the critical analysis of DL/ML approach limitations in the Photonics-based SPR sensor design, have been addressed in this study.
下一代基于spr的PCF传感器研究综述
本文阐述了基于表面等离子体共振的光子晶体光纤传感器与各种结构分析和复杂性分析相关的最新使用方法,如深度学习/机器学习技术在实时应用中的应用。本文阐述了等离子体光子传感器的制造方法、应用和建模技术。它检查了基于分析物在核心(内部传感)或包层(外部传感)中的位置所使用的传感方法的类型。因此,研究的重点是数值分析,这是基于pcf的SPR传感器中常用的方法,即有限元法(FEM),它将所涉及的几何形状划分为相关元件的最精细部分,以优化传感参数,文章还给出了FEM与数据驱动方法的变化。基于表面等离子体共振的生物传感器已用于各种生物分析,在一些理想的情况下,如尿液分析,寻找具有不同参数的血液成分,确定癌症疾病的有害影响以及通过改变血液样本的折射率来评估疟疾,已在临床验证部分得到强调。本文还阐述了常用的设计概念,如单开环和双开环的d形设计,解释为优化高灵敏度值。本研究解决了基于SPR的PCF传感器设计中涉及的各种神经网络方法的深度学习/机器学习和询问技术等先进技术,以及基于光子学的SPR传感器设计中DL/ML方法局限性的关键分析。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Results in Physics
Results in Physics MATERIALS SCIENCE, MULTIDISCIPLINARYPHYSIC-PHYSICS, MULTIDISCIPLINARY
CiteScore
8.70
自引率
9.40%
发文量
754
审稿时长
50 days
期刊介绍: Results in Physics is an open access journal offering authors the opportunity to publish in all fundamental and interdisciplinary areas of physics, materials science, and applied physics. Papers of a theoretical, computational, and experimental nature are all welcome. Results in Physics accepts papers that are scientifically sound, technically correct and provide valuable new knowledge to the physics community. Topics such as three-dimensional flow and magnetohydrodynamics are not within the scope of Results in Physics. Results in Physics welcomes three types of papers: 1. Full research papers 2. Microarticles: very short papers, no longer than two pages. They may consist of a single, but well-described piece of information, such as: - Data and/or a plot plus a description - Description of a new method or instrumentation - Negative results - Concept or design study 3. Letters to the Editor: Letters discussing a recent article published in Results in Physics are welcome. These are objective, constructive, or educational critiques of papers published in Results in Physics. Accepted letters will be sent to the author of the original paper for a response. Each letter and response is published together. Letters should be received within 8 weeks of the article''s publication. They should not exceed 750 words of text and 10 references.
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