Furtherance in Splicing Technique of Optical Fiber Communication

The improvement in technology over long distance communication using optical fiber has been regulated over past few decades, and it took drastic enhancement in one of the major parameter for joining two OFC cable (splicing). The different experiments performed in order to bring about the result that can give nearly 0dB splice loss when there is shifting of entire set up of Optical Fiber Communication. The splicing loss is created by the joining of two SMF using fiber optic fusion splicing. The objective of this paper is to determine the low splice loss in joining two single mode or multimode optical fiber, such that long distance communication that required multiple infrastructure assembly for its operational unit can be made relocatable as there is large investment and material and electronic circuitry is associated to it. Therefore to reduce that cost we have sets of analysis that splicing loss can be reduced to 0dB for SMFSMF end face connection or at least no improvement in splice losses while relocation of OFC infrastructure from one place to other place as the result of the tested experiment. Based on experiment conducted we came to conclusion that with essential requirements for establishing a low-loss and high-speed communication line using optical fibers, the need for quality of splicing technology along with perfect core alignment angle is required to reduce splice loss, such that the infrastructure can be shifted to many different location without any additional cost of new material and new resources. The exact measurement of splice loss can be insured by another set of formula which we came across during the experimental performance.

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Backbone Optical Fiber Analysis at 1310 nm and 1550 nm

Journal of Optical Communications ◽

10.1515/joc-2018-0042 ◽

2018 ◽

Vol 0 (0) ◽

Author(s):

Nandhakumar P ◽

Arun Kumar

Keyword(s):

Optical Fiber ◽

Real Time ◽

Optical Fibers ◽

Single Mode ◽

Optical Fiber Communication ◽

Long Distance ◽

Fiber Communication ◽

The Real ◽

Optical Time Domain Reflectometer ◽

Optic Communication

AbstractOptical fiber communication is the backbone of the entire telecommunication industries in the world. In this work, the real-time backbone long-distance optical fibers (single mode) are tested and analyzed with two different wavelengths (1,310 nm and 1,550 nm) with the help of optical time domain reflectometer. Using these two different wavelengths, how the losses and events of the backbone optical fibers are changing are compared and analyzed. This work will give a way to study the nature of long-distance backbone optical fiber and understand the real-time application of the fiber optic communication.

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EDFA and Optical Fiber Repositioning in an Optical Fiber Communication Network

International Journal for Research in Applied Science and Engineering Technology ◽

10.22214/ijraset.2021.38874 ◽

2021 ◽

Vol 9 (11) ◽

pp. 1100-1105

Author(s):

Mehak Bilal

Keyword(s):

Optical Fiber ◽

Communication System ◽

High Speed ◽

Power Level ◽

Optical Fiber Communication ◽

Output Power Level ◽

Q Factor ◽

Long Distance ◽

Fiber Communication ◽

Optical Fiber Communication System

Abstract: This study shows an easy and effective design of an optical fiber communication system, which demonstrates EDFA's ideal position in the whole system. In recent years, erbium-doped fiber amplifiers (EDFAs) have been more attentive with the development of high-speed and long-distance data transmission systems. In our research, EDFA's forward pump capacity is maintained at 100mW, and our three configurations modify and analyze the location of EDFA. First configuration is meant to place EDFA before optical fiber in the entire system. The second arrangement has been intended such that EDFA will precede optical fiber. EDFA is inserted in the third configuration between the optical fiber length. For the three setups, the BER, Q factor and output power level were observed, with the setup one having minimal BER, setup two with the greatest power, and setup three with the maximum Q factor. This paper discusses the causes behind these results and designers may construct an optical fiber communication system in the most efficient and reliable fashion by taking those results into consideration. The simulation was performed in Opti-System software. Keywords: EDFA, BER, Q factor, Analyzer, Optical fibre

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ANALISIS REDAMANTERHADAP PERFORMANCEDENSE WAVELENGTH DIVISION MULTIPLEXING (DWDM)PADA SISTEM KOMUNIKASI SERAT OPTIKDENGAN METODE LINK POWER BUDGET DI PT. TELKOM PADANG (STUDI KASUS LINK PADANG – LUBUK BASUNG)

Voteteknika (Vocational Teknik Elektronika dan Informatika) ◽

10.24036/voteteknika.v3i1.5184 ◽

2015 ◽

Vol 3 (1) ◽

Author(s):

Farta Wendy Herdianta ◽

Hanesman Hanesman ◽

Delsina Faiza

Keyword(s):

Optical Fiber ◽

Optical Fibers ◽

Wavelength Division Multiplexing ◽

Power Output ◽

Communication Systems ◽

Single Mode ◽

Optical Fiber Communication ◽

Power Budget ◽

Fiber Communication ◽

The Core

The research was conducted by analyzing the optical fiber attenuation of the DWDM performance in terms of power received on optical fiber communication systems link Padang-Lubuk cone in PT. Telkom Padang. Optical fiber has a very small damping. Therefore optical fibers become the primary choice in telecommunications networks. To improve the transmission quality is better then the use of DWDM technology, DWDM technology is a method to insert a number of channels were transmitted in a single optical fiber. Instruments in this study is the Power Meter and OTDR JDSU MTS-2000 type, the type of cable used G.655 Single Mode type. Link Power Budget method is used to determine the performance of DWDM caused by attenuation based on the value of the received power output receiver. On the link Padang - Lubuk cone highest attenuation occurs in core 1 of 29.742dB with 100.035 km cable lengths, and the core 10 of 31.8 dB with 119.998 km cablelengths. Based on the large fault or attenuation/km core 1 of 0.297 dB/km, the core 10 of 0.265 dB/km and the standard ITU-T was 0.35 dB/km. Value attenuation/km core 1 and core 10 is still in normal conditions and under standard ITU-T 0.35 dB/km. Based on optical fiber attenuation, the results of analysis of the link power budget is the value of Rx is smaller than the value of Rx sensitivity of -27 dBm, it can be said performance DWDM optical fiber communication systems in normal and can be used to operate because the power output can still be accepted by receiver in the device. Keywords:optical fiber cable, optical fiber attenuation, DWDM, link power budget.

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Single-mode Optical Fiber: An Investigation for the Bending Loss at Wavelength 650 nm

Jordan Journal of Physics ◽

10.47011/14.4.5 ◽

2021 ◽

Vol 14 (4) ◽

pp. 317-322

Keyword(s):

Optical Fiber ◽

Optical Fibers ◽

Optical Power ◽

Single Mode ◽

Optical Fiber Communication ◽

Energy Losses ◽

Fiber Communication ◽

Single Mode Optical Fiber ◽

Bending Loss ◽

Light Signals

Abstract: In modern time, the optical fiber communication has revolutionized the data transmission process and contributed vitally to the development of qualitative and speedy telecommunication systems. The arteries of this system are optical fibers which carry information as light signals and as fast as speed of light. But these light signals suffer energy losses during their propagation through the optical fibers. For the effective functioning of an optical fiber communication, it is necessary to know and prevent the prevailing energy losses (especially external bending losses) of the optical fibers. In this paper, the external bending loss of optical power while propagating through a single-mode optical fiber has been investigated. Further, the effects of wrapping turns (1 to 6 turns) and bending diameters (2 cm ≤ D ≤ 12 cm) on the power loss of laser at a wavelength of 650 nm have been studied. Keywords: Single-mode optical fiber, Bending loss, Attenuation coefficient, Wrapping turns, Bending diameter. PACs: 42.81.-I, 78.67.Pt, 42.25.Bs.

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Analysis of Optical Backbone Fiber and Trace Report of Break Fiber by Using Optical Time Domain Reflectometer

Journal of Optical Communications ◽

10.1515/joc-2018-0157 ◽

2018 ◽

Vol 0 (0) ◽

Author(s):

Nandhakumar Pandi ◽

Mohasin Naragund

Keyword(s):

Optical Fiber ◽

Optical Fibers ◽

Time Domain ◽

Data Communication ◽

Single Mode ◽

Optical Fiber Communication ◽

Long Distance ◽

Optical Time Domain Reflectometer ◽

Optical Time ◽

Time Domain Reflectometer

AbstractNow a day all the telecommunication industries are using fibers for faster data communication and long distance communication. Fibers use light as the information and it is carried over long distances. Optical fiber has large advantages over a copper and co-axial cable because of its lower attenuation and interference. Optical time domain reflectometer (OTDR) is also one of the important devices using in telecommunication industries to characterize an optical fiber. This article deals with the study of long distance backbone single mode fiber and their features are discussed with the use of an OTDR. The results of this article focused on the losses and breaks of the fiber with the events. The Single mode OTDR is used to find the events, losses and breaks of the backbone fiber between the two locations. This work will give a way to study the nature of optical fibers and understand the practical application of optical fiber communication.

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