Design and performance analysis of smart photonic sensors for industrial applications|RISS 상세보기

다국어 초록 (Multilingual Abstract)

Toxic gas has a median fatal concentration in the oxygen of much more than 200 parts per million (ppm) but far less than 2000 ppm by volume of gas. Many industries, mines and thermal plants emit perilous gases that are more harmful to our human life. The Proposed nanosensor senses the various perilous gases and averts many accidents. In this paper, a two-dimensional Photonic Crystal (2D-PhC) resonator and PhC-based poisonous gas sensor based on the hexagonal and square crystal lattice are built-in smart way. The PhCs are artificial constructs of any material with an occasional enunciation of refractive index (RI). It has effective light manipulation and it would be helpful to obtain light migration in the handling of sensing applications. The TE/TM wave transmission can shift as per the RI value of different gases in the PhCs. The wavelength variations obtained agree well with the Finite Difference Time Domain (FDTD) study, and the simulation is performed by the tool RSoft. The spectral variables such as quality factor (QF), sensitivity (Se), transmitted output power and detection limit (DL) are evaluated using the RI value over the spectrum of different toxic gases. The proposed square crystal structure have acquired a QF range of 500.6, high efficiency of 99%, and a better Se of 716.6 nm/RIU at 1502 nm. The designed hexagonal crystal structure have acquired a QF range of 165.8, high efficiency of 99%, and a better Se of 798.24 nm/RIU at 1630 nm respectively. The DL for both the proposed sensors is very low. So, the designed smart sensor helps promptly recognize the contaminated gases in several places. The proposed nanosensor is helpful in industrial safety, health care applications, aerospace, agricultural, transportation, environmental monitoring, thermal plants and mines.

번역하기

참고문헌 (Reference)

1 C. -J. Yang, "Ultra sensitivity silicon-based photonic crystal microcavity biosensors for plasma protein detection in patients with pancreatic cancer" 11 : 282-, 2020

2 Y. Trabelsi, "Tunable high Tc superconducting photonic band gap resonators based on hybrid quasi-periodic multilayered stacks" 576 : 1353706-, 2020

3 Ayyanar Natesan, "Tricore photonic crystal fibre based refractive index sensor for glucose detection" 13 (13): 118-123, 2019

4 I. S. Amiri, "Tri-core photonic crystal fiber based refractive index dual sensor for salinity and temperature detection" 61 (61): 847-852, 2019

5 H. Arafa, Aly, "Transmittance properties of a quasi-periodic one-dimensional photonic crystals that incorporate nanocomposite material" 32 (32): 1850220-, 2018

6 L. He, "Topological all-optical logic gates based on twodimensional photonic crystals" 27 : 25841-25859, 2019

7 Y. Trabelsi, "Theoretical study of tunable optical resonators in periodic and quasiperiodic one-dimensional photonic structures incorporating a nematic liquid crystal" 5 (5): 2021

8 A. S. Shalaby, "Theoretical study of one-dimensional defect photonic crystal as a high-performance sensor for water-borne bacteria" 53 (53): 2021

9 Arafa H. Aly, "Theoretical study of hybrid multifunctional one-dimensional photonic crystal as a flexible blood sugar sensor" 95 (95): 2020

10 S. Abdel Ghany, "Theoretical studies of hybrid multifunctional YaBa2Cu3O7 photonic crystals within visible and infra-red regions" 46 (46): 365-369, 2020