Advanced Fiber Optic Networks Installation &Amp; Design In Power System Applications
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COURSE DATES AND LOCATIONS
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INTRODUCTION
Fiber Optic Network Design refers to the specialized processes leading to a successful Installation and Operation of a Fiber Optic Network. It includes determining first, the type of Communication Systems which will be carried over the network, the Geographic Layout (premises, campus, outside plant (OSP, etc.), the transmission equipment required and the fiber network over which it will operate.
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COURSE OBJECTIVES
By the end of the course, you‘ll be able to:
- Analyze signal distortion between transmitter and receiver in a simple fiber-optic point-to-point link with respect to attenuation and pulse dispersion.
- Do a qualitative estimation of the maximum transmission distance L at a given signal data rate.
- Do a quantitative characterization of the signal detection process and definition of the minimal detectable optical power for a particular type of signal distortion with respect to a detection error criterion.
- Understand optical system components with typical specifications and applications.
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COURSE AUDIENCE
This course is made for
- Electrical Engineer
- Electrical Project Engineer
- Electronics-research engineer
- Instrumentation and Electrical (I&E) Reliability Engineer
- Power Systems Engineer
- Project Engineer
- Test Engineer
- illuminating engineer
- Technician, semicon
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COURSE OUTLINE
Day One
- Introduction, need for optical communication, salient features of optical fibers, ray theory of light guidance, numerical
aperture, modes of a fiber, single and multimode fibers, step-index and graded-index fibers, fiber fabrication techniques
- Transmission characteristics of optical fibers, attenuation, pulse broadening mechanism, intermodal dispersion, bit rate –
length product, material dispersion, electromagnetic wave analysis of light propagation in an infinitely extended medium, em
waves in dielectrics, boundary conditions
Day Two
- Electromagnetic analysis of planar optical waveguides, TE and TM modes, planar mirror waveguide, dielectric symmetric step-
index, planar waveguide, symmetric and anti-symmetric modes, b-V curves, modal fields - Power associated with modes of dielectric symmetric planar waveguide, asymmetric planar waveguide, single polarization
single mode waveguide, excitation of guided modes by prism coupling technique, radiation modes, optical fiber waveguide,
EH and HE modes, weakly guiding fibers, LP modes, mode cut-offs, b-V curves
Day Three
- Optical fiber modes, field patterns, degeneracies, fractional power in the core, single mode fiber, cut-off wavelength, mode
field diameter, bend loss, splice loss, waveguide dispersion, group delay - Total chromatic dispersion, pulse broadening and chirping, dispersion in graded-index and multilayer fibers, optical fiber
components and devices, directional coupler, power splitter, WDM coupler, polarization controllers, fiber Bragg gratings
Day Four
- Various types of fiber Bragg gratings, fabrication methods, applications, long period gratings, optical fiber amplifier, erbium
doped fiber amplifier, dispersion management, dispersion shifted fiber, dispersion compensating fiber, sources for optical fiber
communication, light emitting diode, internal and external quantum efficiencies, LED characteristics, laser diode
Day Five
- Detectors for optical communication, p-i-n photodetector, APD, System design, dispersion and attenuation limited systems,
BER, power budgeting of fiber link, recent advances
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