DETECTION OF MERCURY IONS IN WATER USING A PLASTIC OPTICAL FIBER SENSOR
DOI:
10.29303/ipr.v4i2.82Downloads
Abstract
Research has been carried out on the detection of mercury ions in water using plastic optical fibers. Detection of mercury ions is done by immersing the optical fiber sensor in the HgCl2 solution, where both ends of the sensor are connected to an LED and a phototransistor. LED as a light source will emit light along with the optical fiber which will be received by the phototransistor. The optical light received by the phototransistor is converted into an electric voltage and given a gain in the differential amplifier. The output voltage in the form of an analog signal is converted into a digital signal on the Arduino UNO so that it can be read on a computer. The optical fiber as a sensor is made in two configurations, namely U configuration and spiral spring configuration. The jacket and the fiber optic cladding are peeled off and then covered with chitosan. Each configuration will be given a variation of the curve to analyze the characteristics of the sensor. The curvature can cause a large power loss resulting in attenuation of the light intensity of the LED received by the phototransistor. Apart from the effect of indentation on optical fibers, the output voltage measurement results are also influenced by the level of HgCl2 concentration. The best measurement results for mercury ion sensors in water using plastic optical fibers are obtained in a spiral spring configuration with a chitosan cladding with a variation of 6 coils which has a sensitivity of 104.065 mV/ppm.Keywords:
Mercury Microcontroller Optical Fiber SensorReferences
J. S. Crosby, D. Lucas and C. P. Koshland (2013). Fiber Optic Based Evanescent Wave Sensor for the Detection of Elemental Mercury Utilizing Gold Nanorods. Sensors and Actuators, 2, 938-942.
V. L. Cariccio, A. Samà , P. Bramanti, E. Mazzon (2018). Mercury Involvement in Neuronal Damage and in Neurodegenerative Diseases. Biological Trace Element Research.
K. Fidanboylu and H. S. Efendioglu (2009). Fiber Optic Sensors and Their Applications. 5th International Advanced Technologies Symposium, 1, 1-6.
A. Arifin, A. M. Hatta, M. S. Muntini, and A. Rubiyanto (2014). Bent of Plastic Optical Fiber with Structural Imperfections for Displacement Sensor. Indian Journal of Pure and Applied Physics, 52, 520-524.
M. Remouche (2012). Flexible Optical Waveguide Bent Loss Attenuation Effects Analysis and Modeling Application to an Intrinsic Optical Fiber Temperature Sensor. Optics and Photonic Journal, 2, 1-7.
S. Gao, C. Ji, Q. Ning, W. Chen, and J. Li (2020). High-sensitive Mach-Zehnder Interferometric Temperature Fiber-Optic Sensor Based On Core-offset Splicing Technique. Optical Fiber Technology, 56, 1-6.
A. V. Joza (2012). Simple and Low-Cost Fiber-Optic Sensor for Detection of UV Radiation. Telfor Journal, 4, 2.
E. Vorathin, Z. M. Hafizi, N. Ismail, and M. Loman (2020). Review of High Sensitivity Fibre-Optic Pressure Sensors for Low Pressure Sensing. Optic and Laser Technology, 121, 1-18.
M. Gutierrez-Rivera (2020). Low-Pressure Fiber-Optic Sensor by Polyester Fabry-Perot Cavity and Its Phase Signal Processing Analysis. Sensors and Actuators A, 315, 1-8.
P. Aiestaran, J. Arrue, and J. Zubia (2009). Design of a Sensor Based on Plastic Optical Fibre (POF) to Measure Fluid Flow and Turbidity. Sensors, 9, 3790-3800.
D. Raj (2016). Surface Plasmon Resonance Based Fiber Optic Sensor for Mercury Detection using Gold Nanoparticles PVA Hybrid. Optic Communications, 367, 102-107.
S. Jia (2017). A Fiber-optic Sensor Based on Plasmon Coupling Effects in Gold Nanoparticles Core-satellites Nanostructure for Determination of Mercury Ions (II). Chinese Journal of Analytical Chemistry, 45, 785-790.
Jia (2018). A Wavelength-Modulated Localized Surface Plasmon Resonance (LSPR) Optical Fiber Sensor for Sensitive Detection of Mercury (II) Ion by Gold Nanoparticles-DNA Conjugates. Biosensors and Bioelectronic, 1-11.
[13] A. Maddu, K. Modjahidin, S. Sardy, and H. Zain (2006). Pengembangan Probe Sensor Kelembaban Serat Optik dengan Cladding Gelatin. Makara Teknologi, 10, 45-50.
A. Arifin, Yusran, Miftahuddin, B. Abdullah, and D. Tahir (2017). Comparison of Sensitivity and Resolution Load Sensor at Various Configuration Polymer Optical Fiber. AIP Publishing The 6th ICTAP, 1801, 1-7.
B. S. Boruah and R. Biswas (2018). An Optical Fiber Based Surface Plasmon Resonance Technique for Sensing of Lead Ions: A Toxic Water Pollutant. Optical Fiber Technology, 46, 152-156.
License
Authors retain the copyright to their work and grant Indonesian Physical Review a non-exclusive right of first publication. All articles are published under the Creative Commons Attribution-ShareAlike 4.0 International License (CC BY-SA 4.0). Authors retain their publishing rights without restrictions and may distribute, deposit, or reuse the published version of their work, provided that its initial publication in Indonesian Physical Review is properly acknowledged. Indonesian Physical Review does not require authors to transfer copyright to the journal or publisher.

