Design and implementation of MOEMS based optical diaphragm using Photonic Crystal for the prevention of barotrauma

When there is stress on the eardrum because of a change in air pressure is known as Barotrauma. If there is excessive pressure than 20 KPa, damage to the eardrum may occur. During air travel, Barotrauma can occur due to pressure differences at high altitudes. This paper presented a MOEMS based press...

Descripción completa

Guardado en:
Detalles Bibliográficos
Autores principales: P. R Yashaswini, P. C Srikanth, Preeta Sharan
Formato: article
Lenguaje:EN
Publicado: Elsevier 2021
Materias:
Acceso en línea:https://doaj.org/article/98f047135c2c4ac79aee4cddd385d9bf
Etiquetas: Agregar Etiqueta
Sin Etiquetas, Sea el primero en etiquetar este registro!
id oai:doaj.org-article:98f047135c2c4ac79aee4cddd385d9bf
record_format dspace
spelling oai:doaj.org-article:98f047135c2c4ac79aee4cddd385d9bf2021-11-20T05:15:36ZDesign and implementation of MOEMS based optical diaphragm using Photonic Crystal for the prevention of barotrauma2666-950110.1016/j.rio.2021.100191https://doaj.org/article/98f047135c2c4ac79aee4cddd385d9bf2021-12-01T00:00:00Zhttp://www.sciencedirect.com/science/article/pii/S266695012100136Xhttps://doaj.org/toc/2666-9501When there is stress on the eardrum because of a change in air pressure is known as Barotrauma. If there is excessive pressure than 20 KPa, damage to the eardrum may occur. During air travel, Barotrauma can occur due to pressure differences at high altitudes. This paper presented a MOEMS based pressure sensor using Photonic crystal. Two variants of sensor designs are a ring resonator and a semicircular resonator structure. Some of the potential use of a nanoscale pressure sensor is to measure the pressure inserted on the eardrum during scuba diving and the impact of an automobile airbag. The novelty of the work is to detect low-pressure between 5 KPa and 20 KPa. When applying pressure to the sensor, a variation in the refractive index occurs proportional to the stress imparted. The change in optical property caused the shift in the wavelength for pressure level. The impact of stress on a sensor placed on the diaphragm separating two media (air and water) were analyzed using 3D modelling and simulations. The designed sensor can be placed in an earplug to monitor pressure change. The Q-Factor observed is 3877.80 for ring structure and 4933.77 for semicircular structure. The novelty of the work is the development of Photonic Crystal based pressure sensor for Barotrauma detection and reduction of the sensor’s size.P. R YashaswiniP. C SrikanthPreeta SharanElsevierarticleMOEMSBarotraumaResonatorPhotonic CrystalScubaRefractive indexOptics. LightQC350-467ENResults in Optics, Vol 5, Iss , Pp 100191- (2021)
institution DOAJ
collection DOAJ
language EN
topic MOEMS
Barotrauma
Resonator
Photonic Crystal
Scuba
Refractive index
Optics. Light
QC350-467
spellingShingle MOEMS
Barotrauma
Resonator
Photonic Crystal
Scuba
Refractive index
Optics. Light
QC350-467
P. R Yashaswini
P. C Srikanth
Preeta Sharan
Design and implementation of MOEMS based optical diaphragm using Photonic Crystal for the prevention of barotrauma
description When there is stress on the eardrum because of a change in air pressure is known as Barotrauma. If there is excessive pressure than 20 KPa, damage to the eardrum may occur. During air travel, Barotrauma can occur due to pressure differences at high altitudes. This paper presented a MOEMS based pressure sensor using Photonic crystal. Two variants of sensor designs are a ring resonator and a semicircular resonator structure. Some of the potential use of a nanoscale pressure sensor is to measure the pressure inserted on the eardrum during scuba diving and the impact of an automobile airbag. The novelty of the work is to detect low-pressure between 5 KPa and 20 KPa. When applying pressure to the sensor, a variation in the refractive index occurs proportional to the stress imparted. The change in optical property caused the shift in the wavelength for pressure level. The impact of stress on a sensor placed on the diaphragm separating two media (air and water) were analyzed using 3D modelling and simulations. The designed sensor can be placed in an earplug to monitor pressure change. The Q-Factor observed is 3877.80 for ring structure and 4933.77 for semicircular structure. The novelty of the work is the development of Photonic Crystal based pressure sensor for Barotrauma detection and reduction of the sensor’s size.
format article
author P. R Yashaswini
P. C Srikanth
Preeta Sharan
author_facet P. R Yashaswini
P. C Srikanth
Preeta Sharan
author_sort P. R Yashaswini
title Design and implementation of MOEMS based optical diaphragm using Photonic Crystal for the prevention of barotrauma
title_short Design and implementation of MOEMS based optical diaphragm using Photonic Crystal for the prevention of barotrauma
title_full Design and implementation of MOEMS based optical diaphragm using Photonic Crystal for the prevention of barotrauma
title_fullStr Design and implementation of MOEMS based optical diaphragm using Photonic Crystal for the prevention of barotrauma
title_full_unstemmed Design and implementation of MOEMS based optical diaphragm using Photonic Crystal for the prevention of barotrauma
title_sort design and implementation of moems based optical diaphragm using photonic crystal for the prevention of barotrauma
publisher Elsevier
publishDate 2021
url https://doaj.org/article/98f047135c2c4ac79aee4cddd385d9bf
work_keys_str_mv AT pryashaswini designandimplementationofmoemsbasedopticaldiaphragmusingphotoniccrystalforthepreventionofbarotrauma
AT pcsrikanth designandimplementationofmoemsbasedopticaldiaphragmusingphotoniccrystalforthepreventionofbarotrauma
AT preetasharan designandimplementationofmoemsbasedopticaldiaphragmusingphotoniccrystalforthepreventionofbarotrauma
_version_ 1718419497150316544