Fiber optics characterisation and transmission loss measurement

The objectives for this study are to compare the transmission signal characteristics from transmitter and receiver through different type of fiber optics by using the laboratory experiment set. Besides that, the attenuation loss for this fiber optics was compared and which is the best fiber optics f...

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Main Author: Ivy Chang Chek Yin
Format: Academic Exercise
Language:English
English
Published: 2009
Subjects:
Online Access:https://eprints.ums.edu.my/id/eprint/36618/1/24%20PAGES.pdf
https://eprints.ums.edu.my/id/eprint/36618/2/FULLTEXT.pdf
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author Ivy Chang Chek Yin
author_facet Ivy Chang Chek Yin
author_sort Ivy Chang Chek Yin
collection UMS
description The objectives for this study are to compare the transmission signal characteristics from transmitter and receiver through different type of fiber optics by using the laboratory experiment set. Besides that, the attenuation loss for this fiber optics was compared and which is the best fiber optics for the transmission line among them was identified. All the fiber optics used was up to the length of 3.2 meter. The relationship between the voltage and current can be determined by adjusting the potentiometer at the fiber optics transmitter SO420 l-9L. The characteristics of the transmitting diode for wavelength 875 nm and 950 nm are similar, which is quadratic increased with x-axes variables. The frequency response for transmitter is linear for both wavelengths. But the frequency response of the transmission line is quadratic decreased as frequency increased. The upper limit frequency of the transmission line is 300 kHz and its determining factor is fiber optics detector. Plastics fiber optics type A, B and D show the clear increase of length-dependent attenuation as the fiber length and the wavelength increased. Compared to glass fiber type C, it has the lowest length-dependent attenuation but highest coupling attenuation among others. This is because the lost of the light absorption and cattering during the transmission are minima and thus low length-dependent attenuation. The high coupling attenuation is because of the loss at the broken end of fibcr optics during the cutting process and the loss at the connection between transmitter-fiber, fibcr-fiber and fiber-receiver. The coupling attenuation is not dependent on wavelength. Glass fiber optics (type C) is the best for optical transmission.
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spelling ums.eprints-366182023-09-01T00:49:47Z https://eprints.ums.edu.my/id/eprint/36618/ Fiber optics characterisation and transmission loss measurement Ivy Chang Chek Yin TA1501-1820 Applied optics. Photonics The objectives for this study are to compare the transmission signal characteristics from transmitter and receiver through different type of fiber optics by using the laboratory experiment set. Besides that, the attenuation loss for this fiber optics was compared and which is the best fiber optics for the transmission line among them was identified. All the fiber optics used was up to the length of 3.2 meter. The relationship between the voltage and current can be determined by adjusting the potentiometer at the fiber optics transmitter SO420 l-9L. The characteristics of the transmitting diode for wavelength 875 nm and 950 nm are similar, which is quadratic increased with x-axes variables. The frequency response for transmitter is linear for both wavelengths. But the frequency response of the transmission line is quadratic decreased as frequency increased. The upper limit frequency of the transmission line is 300 kHz and its determining factor is fiber optics detector. Plastics fiber optics type A, B and D show the clear increase of length-dependent attenuation as the fiber length and the wavelength increased. Compared to glass fiber type C, it has the lowest length-dependent attenuation but highest coupling attenuation among others. This is because the lost of the light absorption and cattering during the transmission are minima and thus low length-dependent attenuation. The high coupling attenuation is because of the loss at the broken end of fibcr optics during the cutting process and the loss at the connection between transmitter-fiber, fibcr-fiber and fiber-receiver. The coupling attenuation is not dependent on wavelength. Glass fiber optics (type C) is the best for optical transmission. 2009-04 Academic Exercise NonPeerReviewed text en https://eprints.ums.edu.my/id/eprint/36618/1/24%20PAGES.pdf text en https://eprints.ums.edu.my/id/eprint/36618/2/FULLTEXT.pdf Ivy Chang Chek Yin (2009) Fiber optics characterisation and transmission loss measurement. Universiti Malaysia Sabah. (Unpublished)
spellingShingle TA1501-1820 Applied optics. Photonics
Ivy Chang Chek Yin
Fiber optics characterisation and transmission loss measurement
title Fiber optics characterisation and transmission loss measurement
title_full Fiber optics characterisation and transmission loss measurement
title_fullStr Fiber optics characterisation and transmission loss measurement
title_full_unstemmed Fiber optics characterisation and transmission loss measurement
title_short Fiber optics characterisation and transmission loss measurement
title_sort fiber optics characterisation and transmission loss measurement
topic TA1501-1820 Applied optics. Photonics
url https://eprints.ums.edu.my/id/eprint/36618/1/24%20PAGES.pdf
https://eprints.ums.edu.my/id/eprint/36618/2/FULLTEXT.pdf
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