<strong>External Perspective of Lung Airflow Model Through Diaphragm Breathing Sensor Using Fiber Optic Elastic Belt</strong>
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Title Statement |
<strong>External Perspective of Lung Airflow Model Through Diaphragm Breathing Sensor Using Fiber Optic Elastic Belt</strong> |
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Added Entry - Uncontrolled Name |
Defrianto, Defrianto ; Universitas Riau Saktioto, Toto ; University of Riau Hikma, Nurfi ; Universitas Riau Soerbakti, Yan ; Universitas Riau Irawan, Dedi ; Universitas Riau Okfalisa, Okfalisa ; Universitas Islam Negeri Sultan Syarif Kasim Widiyatmoko, Bambang ; National Research and Innovation Agency PUSPIPTEK Serpong Hanto, Dwi ; National Research and Innovation Agency PUSPIPTEK Serpong |
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Uncontrolled Index Term |
specific instrumentation and techniques of general use in physics Fiber optic sensor; Fiber Bragg grating; Respiratory; Navier-Stokes; Sinusoidal bending |
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Summary, etc. |
Optical fiber-based detector technology is highly appreciated and developed in the field of medical physics. Through its fiber-optic wave pattern performance, this detector has great potential for monitoring difficult-to-calculate parameters such as airflow in the lungs. To realize this reality, a theoretical and experimental approach is needed in this research. The lung tissue model was formed using the Navier-Stokes equation using the finite element method by taking into account the continuity and momentum equations. While experimentally, single-mode fiber and fiber Bragg grating (FBG) was installed with a sinusoidal macro bending pattern as a strain sensor which was applied to the elastic belt and mounted on the diaphragm. The simulation model carried out depicts the velocity of air moving from the pulmonary duct to increase as it flows into smaller branches. While the experimental results show that the detected power parameter is a maximum of -0.16 dBm during inhalation and a minimum of -0.19 dBm during expiration. Due to the bending approach, the FBG sensor belt obtained the highest sensitivity at a sinusoidal bending diameter of 0.8 cm. Therefore, this is good news as a more accurate detector approach for medical purposes. |
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Publication, Distribution, Etc. |
Indian Journal of Pure & Applied Physics (IJPAP) 2022-08-02 12:32:00 |
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Electronic Location and Access |
application/pdf http://op.niscair.res.in/index.php/IJPAP/article/view/62342 |
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Data Source Entry |
Indian Journal of Pure & Applied Physics (IJPAP); ##issue.vol## 60, ##issue.no## 7 (2022): Indian Journal of Pure & Applied Physics |
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Language Note |
en |
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Terms Governing Use and Reproduction Note |
Except where otherwise noted, the Articles on this site are licensed under Creative Commons License: CC Attribution-Noncommercial-No Derivative Works 2.5 India © 2015. The Council of Scientific & Industrial Research, New Delhi. |
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