analysis of 10 GBPS optical communication system using different pulses Apurv Anand1, VIkash Kumar2 , Ekta Negi3 Deepak Kumar Ray4 1,2,3 Dept. of EnTC , Bharti VIdyapeeth deemed university , College of Engineering Pune , Maharashtra-411043 , India 4 Assistant Professor , Bharti Vidyapeeth deemed university , College of engineering Pune , Maharashtra-411043 , India ABSTRACT : - In this paper we simulatd an optical transmission system
FIBER OPTIC STRAIN SENSOR PROJECT REPORT SWAPNA RAAVI 104946905 Table of Contents Introduction ................................................................................................................................ 3 1. Conventional strain sensors……............................................................................................ 3 1.1Foil Strain Gage ....................................................................................................... 3 1.2Accelerometer
optically or electronically. In optical communication, there are two broadly used techniques for increasing the capacity of the transmission. The first technique is to spread-out the bandwidth by adding numerous optical carriers. This technique has already been slow and deployed and it is known as Wavelength Division Multiplexing (WDM). Wavelength Division Multiplexing can benefit to extend the transmission bandwidth by adding various transceivers for the current optical fiber links deprived of the need
we established a trench-assisted optical fiber model to verify the ability of the trench structure to reduce the bending loss. The specific parameters of the model are listed below: the radius of fiber a is 4.1μm, the thickness of inner clad b is 4.13μm, the trench width c is 11.3μm, the difference of trench refractive index ∆n_trench is -0.0048, the refractive index of fiber core nco is 1.45, the refractive index of clad ncl is 1.445, the curvature radius of fiber is 5cm, the wavelength is 1550nm
modes to generate LP11 modes (LP11a+LP11b) and even all three modes (LP01+LP11a+LP11b)over few-mode fiber (FMF)The transmission system with mode multiplexing are a very crucial problem. The mode selective devices proposed in divided into two major categories: free-space based (FSB) and fiber based(FB).Free space components are bulky in size ex liquid-crystal-on-silicon (LCOS) spatial light modulator (SLM). But fiber based mode selective device have compact and easiness of integration. .Firstly proposed
LP11 modes (LP11a+LP11b) and even all three modes (LP01+LP11a+LP11b)over few-mode fiber (FMF)The transmission system with mode multiplexing are a very crucial problem. The mode selective devices proposed in divided into two major categories: free-space based (FSB) and fiber based(FB).Free space components are bulky in size ex liquid-crystal-on-silicon (Lcos) spatial light modulator (SLM). But fiber based mode selective device have compact and easiness of integration. .Firstly proposed 107-Gb/s coherent
Advanced Networking Technologies Technical Report Optical Fiber Networks Abstract: Introduction: http://www.fiber-optics.info/history In 1870, a person called John Tyndall demonstrated and experiment in which the water from one container flows to the another container where the water is on top container flows into the container which is at the bottom, then john projected a light beam on to the top container, he observed that the light followed a “zigzag” path in the curved water flow. Form that
Fiber Optics What are Fiber Optics? Fiber optics are thin transparent fibers of glass or plastic enclosed by a material of a lower index of refraction and that transmit light throughout their length by internal reflections. Real fiber optic cables are made out of very pure glass, glass so pure that if it were miles thick, light would still be able to pass through. The fiber optic strand, although thin in diameter, is stretched to miles in length. Therefore only the purest of glass would be
SONET (Synchronous Optical Network) is first developed and deployed on North America. It transfers multiple digital bit streams and it is standardized multiplexing protocol. It works at physical layer (layer 1) that supports the high transmission rates (155 Mbps to 10 Gbps) needed in metro applications. SONET network speeds currently range from OC-1 (51.84 Mbps) to OC-192 (9953.28 Mbps). SONET serves as a backbone transport for other technologies such as ATM and Ethernet. Optical fiber signal Service
A fiber optic cable is a network cable that contains strands of glass fibers within an insulated casing. There are designed for very high-performance data networking, long distance and telecommunications. Compare with wired cables, fiber optic cables give higher bandwidth and can transmit data over longer distances. Fiber optic cables support world's internet, telephone systems and cable television. Fiber optic cables transmit signals using pulses of light generated by light-emitting diodes (LEDs)