Polymer Optical Fiber-Based Respiratory Sensors: Various Designs and Implementations
This research discusses the polymer optical fiber sensor for respiratory measurements. The infrared LED that produces light will propagate along the polymer optical fiber which will be received by the phototransistor and the differential amplifier. The output voltage in the form of an analog signal...
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doaj-6e634100cdee4dd39eadfede27d873022020-11-25T01:34:37ZengHindawi LimitedJournal of Sensors1687-725X1687-72682019-01-01201910.1155/2019/69707086970708Polymer Optical Fiber-Based Respiratory Sensors: Various Designs and ImplementationsA. Arifin0Nelly Agustina1Syamsir Dewang2Irfan Idris3Dahlang Tahir4Department of Physics, Hasanuddin University, Makassar 90245, IndonesiaDepartment of Physics, Hasanuddin University, Makassar 90245, IndonesiaDepartment of Physics, Hasanuddin University, Makassar 90245, IndonesiaDepartment of Physiology, Hasanuddin University, Makassar 90245, IndonesiaDepartment of Physics, Hasanuddin University, Makassar 90245, IndonesiaThis research discusses the polymer optical fiber sensor for respiratory measurements. The infrared LED that produces light will propagate along the polymer optical fiber which will be received by the phototransistor and the differential amplifier. The output voltage in the form of an analog signal will be converted to a digital signal by the Arduino Uno microcontroller and displayed on the computer. The polymer optical fiber sensor is installed on the corset using a variety of configuration (straight, sinusoidal, and spiral), placed in the abdomen, and a variety of positions (abdomen, chest, and back) using only a spiral configuration. While doing the inspiration, the stomach will be enlarged so that the optical fiber sensor will have strain. The strain will cause loss of power, the resulting light intensities received by the phototransistor are reduced, and the output voltage on the computer decreases. The result shows that the highest voltage amplitudes were in the spiral configuration placed in the abdominal position for slow respiration measurements with the highest range, sensitivity, and resolution which are 0.119 V, 0.238 V/s, and 0.004 s, respectively. The advantages of our work are emphasized on measurement system simplicity, low cost, easy fabrication, and handy operation and can be connected with the Arduino Uno microcontroller and computer.http://dx.doi.org/10.1155/2019/6970708 |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
A. Arifin Nelly Agustina Syamsir Dewang Irfan Idris Dahlang Tahir |
spellingShingle |
A. Arifin Nelly Agustina Syamsir Dewang Irfan Idris Dahlang Tahir Polymer Optical Fiber-Based Respiratory Sensors: Various Designs and Implementations Journal of Sensors |
author_facet |
A. Arifin Nelly Agustina Syamsir Dewang Irfan Idris Dahlang Tahir |
author_sort |
A. Arifin |
title |
Polymer Optical Fiber-Based Respiratory Sensors: Various Designs and Implementations |
title_short |
Polymer Optical Fiber-Based Respiratory Sensors: Various Designs and Implementations |
title_full |
Polymer Optical Fiber-Based Respiratory Sensors: Various Designs and Implementations |
title_fullStr |
Polymer Optical Fiber-Based Respiratory Sensors: Various Designs and Implementations |
title_full_unstemmed |
Polymer Optical Fiber-Based Respiratory Sensors: Various Designs and Implementations |
title_sort |
polymer optical fiber-based respiratory sensors: various designs and implementations |
publisher |
Hindawi Limited |
series |
Journal of Sensors |
issn |
1687-725X 1687-7268 |
publishDate |
2019-01-01 |
description |
This research discusses the polymer optical fiber sensor for respiratory measurements. The infrared LED that produces light will propagate along the polymer optical fiber which will be received by the phototransistor and the differential amplifier. The output voltage in the form of an analog signal will be converted to a digital signal by the Arduino Uno microcontroller and displayed on the computer. The polymer optical fiber sensor is installed on the corset using a variety of configuration (straight, sinusoidal, and spiral), placed in the abdomen, and a variety of positions (abdomen, chest, and back) using only a spiral configuration. While doing the inspiration, the stomach will be enlarged so that the optical fiber sensor will have strain. The strain will cause loss of power, the resulting light intensities received by the phototransistor are reduced, and the output voltage on the computer decreases. The result shows that the highest voltage amplitudes were in the spiral configuration placed in the abdominal position for slow respiration measurements with the highest range, sensitivity, and resolution which are 0.119 V, 0.238 V/s, and 0.004 s, respectively. The advantages of our work are emphasized on measurement system simplicity, low cost, easy fabrication, and handy operation and can be connected with the Arduino Uno microcontroller and computer. |
url |
http://dx.doi.org/10.1155/2019/6970708 |
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