Illegal food chemicals sensing with photonic crystal fiber sensor in the terahertz spectrum

IF 5.4 Q1 CHEMISTRY, ANALYTICAL
Rakib Hossen , Md. Selim Hossain , Sabbir Ahmed , Md. Mahfujur Rahman , Shuvo Sen
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引用次数: 0

Abstract

The method by which a photonic crystal is manufactured fiber is detailed throughout the subsequent undertaking, containing a hexahedron core and hazardous dietary additives using a hexagonal cladding. Saccharine, sorbitol, and butyl acetate are used as analytes for sensing purposes. The sensor contains five tiers of circular ventilation holes within the hexagonal framework, as well as two tiers of hexahedron circles in the central area. FEM (Finite Element Method) is implemented in the sensor design of COMSOL software version 4.2. We noticed the response of the PCF sensor to the specific substances. We examined key optical metrics encompassing specifications including V-parameter, Relational sensitivity, effective refractive index, and power fraction to assess the suitability of the sensor for precisely and effectively detecting various food additives. The revised model attains sensitivity values of 90.10%, 91.30%, and 86.60%, respectively, at a frequency of 1 THz, the identification of saccharine (1.550 in the index of refraction), sorbitol (1.375 in the index of refraction), and butyl acetate (1.394 in the index of refraction) is performed. Furthermore, the compositions of saccharine (1.550 in the index of refraction), sorbitol (1.375 in the index of refraction), and butyl acetate (1.394 in the index of refraction) demonstrate losses from confinement of 6.15 × 10−8 dB/m, 7.25 × 10−8 dB/m, and 6.35 × 10−8 dB/m, which are comparatively minimal, and 0.0235 cm−1 is an insignificant effective material loss. These structures are studied at the terahertz frequency spectrum. Owing to its superior wave-guiding properties, this proposed sensor can be used for polarization-preserving terahertz wave applications and detecting dangerous food additives. Besides, because of simple fabrication, high sensitivity, and low confinement loss, we strongly believe this optimized geometrical structure will contribute to real-life applications that lead to safer food and support a circular economy in developing countries.

利用太赫兹光谱光子晶体光纤传感器感测非法食品化学物质
在随后的工作中,将详细介绍制造光纤光子晶体的方法,该晶体包含一个六面体核心和使用六边形包层的有害膳食添加剂。糖精、山梨醇和醋酸丁酯被用作传感分析物。传感器在六面体框架内有五层圆形通气孔,在中心区域有两层六面体圆形通气孔。传感器设计采用了 COMSOL 软件 4.2 版的有限元法(FEM)。我们注意到 PCF 传感器对特定物质的响应。我们检查了包括 V 参数、相对灵敏度、有效折射率和功率分数在内的关键光学指标,以评估传感器是否适合精确有效地检测各种食品添加剂。经修订的模型在 1 太赫兹频率下的灵敏度值分别为 90.10%、91.30% 和 86.60%,可识别糖精(折射率为 1.550)、山梨醇(折射率为 1.375)和醋酸丁酯(折射率为 1.394)。此外,糖精(折射率为 1.550)、山梨糖醇(折射率为 1.375)和醋酸丁酯(折射率为 1.394)的成分显示出 6.15 × 10-8 dB/m、7.25 × 10-8 dB/m 和 6.35 × 10-8 dB/m 的约束损耗,这些损耗相对较小,0.0235 cm-1 是微不足道的有效材料损耗。我们在太赫兹频谱对这些结构进行了研究。由于其优越的导波特性,这种拟议的传感器可用于极化保护太赫兹波应用和检测危险食品添加剂。此外,由于其制造简单、灵敏度高、约束损耗低,我们坚信这种优化的几何结构将有助于现实生活中的应用,从而带来更安全的食品,并支持发展中国家的循环经济。
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来源期刊
Sensing and Bio-Sensing Research
Sensing and Bio-Sensing Research Engineering-Electrical and Electronic Engineering
CiteScore
10.70
自引率
3.80%
发文量
68
审稿时长
87 days
期刊介绍: Sensing and Bio-Sensing Research is an open access journal dedicated to the research, design, development, and application of bio-sensing and sensing technologies. The editors will accept research papers, reviews, field trials, and validation studies that are of significant relevance. These submissions should describe new concepts, enhance understanding of the field, or offer insights into the practical application, manufacturing, and commercialization of bio-sensing and sensing technologies. The journal covers a wide range of topics, including sensing principles and mechanisms, new materials development for transducers and recognition components, fabrication technology, and various types of sensors such as optical, electrochemical, mass-sensitive, gas, biosensors, and more. It also includes environmental, process control, and biomedical applications, signal processing, chemometrics, optoelectronic, mechanical, thermal, and magnetic sensors, as well as interface electronics. Additionally, it covers sensor systems and applications, µTAS (Micro Total Analysis Systems), development of solid-state devices for transducing physical signals, and analytical devices incorporating biological materials.
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