Muutke küpsiste eelistusi

Silica Optical Fiber Technology for Devices and Components: Design, Fabrication, and International Standards [Kõva köide]

,
Teised raamatud teemal:
Silica Optical Fiber Technology for Devices and Components: Design, Fabrication, and International StandardsSuurem pilt
Teised raamatud teemal:
Püsilink: https://www.kriso.ee/db/9780471455585.html
Märksõnad:
From basic physics to new products, Silica Optical Fiber Technology for Device and Components examines all aspects of specialty optical fibers. Moreover, the inclusion of the latest international standards governing optical fibers enables you to move from research to fabrication to commercialization. Reviews all the latest specialty optical fiber technologies, including those developed for high capacity WDM applications; broadband fiber amplifiers; fiber filleters based on periodic coupling; fiber branching devices; and fiber terminations

Discusses key differences among single mode fibers, multimode fibers for high speed Ethernet LAN, and dispersion compensating fibers for long-haul applications

Compares the most recently developed conventional optical fibers with the latest photonic crystal fibers still in development

A self-contained, menu-driven software program is included for optical fiber design, simulating waveguide structures for most of the fibers discussed in the book.

Arvustused

The technical level is suitable for students of science and engineering in their first or second year of graduate school.  (Book News, 1 April 2012)

 

Preface ix
Acknowledgment xiii
1 Introduction
1(17)
1.1 Brief Historical Review of Silica Optical Fibers
1(7)
1.2 International Standards for Silica Optical Fibers
8(4)
1.3 Classifications of Silica Optical Fibers
12(6)
References
16(2)
2 Review on Single-Mode Fiber Design and International Standards
18(65)
2.1 Optical Modes in Cylindrical Waveguides
18(19)
2.2 Material Dispersion in Optical Fibers
37(11)
2.3 Optical Attributes for Single-Mode Fiber Characterization and Classification
48(16)
2.4 International Standards for Single-Mode Fibers
64(19)
References
79(4)
3 Preform Fabrication and Optical Fiber Drawing Process
83(48)
3.1 Preform Fabrication Based on Chemical Vapor Deposition Process
83(18)
3.2 Postprocesses for Geometrical Modification of Preform
101(3)
3.3 Optical Fiber Drawing
104(27)
References
126(5)
4 Dispersion-Managed Single-Mode Fibers for Wavelength Division Multiplexing
131(54)
4.1 Wavelength Allocations in Single-Mode Fibers for WDM Applications
131(6)
4.2 Optimization of Waveguide Parameters for Dispersion Control
137(13)
4.3 Refractive Index Profile Analysis for Dispersion-Shifted Fibers
150(7)
4.4 Dispersion-Compensating Fibers Using the Fundamental Mode
157(11)
4.5 Dispersion Compensation Using High-Order Modes
168(17)
References
181(4)
5 Multimode Fibers for Large-Bandwidth Applications
185(39)
5.1 History and Recent Application Trends of Multimode Optical Fibers
185(5)
5.2 Principle of Multimode Optical Fiber Design
190(7)
5.3 Impacts of Nonideal α-Refractive Index Profile on Transmission Bandwidth
197(6)
5.4 Main Attributes of GI-MMFs-Bandwidth and Differential Modal Delay
203(10)
5.5 Multimode Optical Fiber Standards
213(11)
References
221(3)
6 Optical Nonlinearity Control in Optical Fibers
224(56)
6.1 Historical Review of Optical Nonlinearity in Optical Fibers
224(2)
6.2 Origin of Optical Nonlinearities in Optical Fibers
226(5)
6.3 Specifications of Nonlinear Optical Processes in Optical Fibers
231(3)
6.4 Comparison of Raman and Brillouin Scattering in Single-Mode Optical Fibers
234(2)
6.5 Control of Raman Scattering in Silica Optical Fibers
236(9)
6.6 Brief Review on Raman Amplifiers and Lasers
245(8)
6.7 Control of Brillouin Scattering in Silica Optical Fibers
253(14)
6.8 Review on Fiber Brillouin Sensors and Recent Novel Applications
267(13)
References
273(7)
7 Birefringence Control in Optical Fibers
280(41)
7.1 Physical Parameters for the Polarization Characterization in Optical Fibers
280(6)
7.2 Representation of the State of Polarization in Optical Fiber Using Poincare Sphere
286(4)
7.3 Classifications of Linear Polarization Maintaining Fibers
290(4)
7.4 Fabrication Methods for High Birefringence Fibers
294(2)
7.5 Control of Birefringence by Waveguide Design in Birefringent Fibers
296(8)
7.6 Single-Polarization Single-Mode Fibers
304(6)
7.7 Low Linear Birefringence Fibers
310(11)
References
316(5)
8 Optical Fibers Based on Air-Silica Guiding Structure
321(57)
8.1 Review of Air-Silica Guidance in Optical Fibers
321(1)
8.2 Fabrication Technique---Stack and Draw Method
322(2)
8.3 Effective Index Guiding Air-Silica Optical Fibers
324(7)
8.4 Large Mode Area and Bending Loss Based on Effective Index Guiding Air-Silica Holey Fibers
331(4)
8.5 Dispersion Control in Effective Index Guiding Air-Silica Holey Fibers
335(7)
8.6 Optical Loss in Effective Index Guiding Air-Silica Holey Fibers
342(5)
8.7 Kerr Nonlinearity in Effective Index Guiding Air-Silica Holey Fibers
347(4)
8.8 Birefringence Control in Effective Index Guiding Air-Silica Holey Fibers
351(4)
8.9 Hollow Optical Fiber and its Applications
355(23)
References
368(10)
9 Fiber Mode Analysis Using OFACAD
378(23)
9.1 Theoretical Review on Cascaded Boundary Matrix Method
378(6)
9.2 Algorithm for CBM to Find Optical Properties of Guided Modes
384(2)
9.3 Mode Analysis Example Using OFACAD
386(15)
References
399(2)
Appendix A OFACAD Installation/Operation Manual 401(14)
Appendix B Operation Manual of OFACAD 415(32)
Index 447
KYUNGHWAN OH, PhD, is Professor in the Department of Physics at Yonsei University. Dr. Oh is Alexander von Humbodt Research Fellow, Chevening Scholar, and JSPS Invitation Fellow. UN-CHUL PAEK, PhD, was Professor at the Gwangju Institute of Science and Technology. Dr. Paek was a Fellow at Bell Labs, an OSA Fellow, and a Member of National Academy of Engineering, United States.