Handbook of optical fibers /

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Bibliographic Details
Imprint:Singapore : Springer, 2019.
Description:1 online resource : illustrations (some color)
Language:English
Subject:
Format: E-Resource Book
URL for this record:http://pi.lib.uchicago.edu/1001/cat/bib/11939030
Hidden Bibliographic Details
Other authors / contributors:Peng, Gang-Ding, editor.
ISBN:9789811070877
9811070873
9789811070860
9811070865
9789811070853
9811070857
Notes:Includes index.
Online resource; title from PDF title page (SpringerLink, viewed September 9, 2019).
Summary:This handbook aims to be a comprehensive and up-to-date reference tool for students, scientists, engineers and industrial practitioners who are working in an area of the optical fiber field. The book includes five sections that cover the following subtopics as follows: • Optical Fiber Fundamentals including fiber materials and characteristics, fiber design, analysis, fabrication, test, etc; • Optical Fibers including all conventional and special fibers; • Optical Fiber Devices including all passive and active fiber devices and components, such as fiber couplers, fiber connectors, fiber gratings, fiber amplifiers and fiber lasers; • Optical Fiber Communication including main optical fiber communication techniques and systems • Optical Fiber Sensing including main optical fiber sensing and systems.
Other form:Print version: Handbook of optical fibers. Singapore : Springer, 2019 9811070857 9789811070853
Standard no.:10.1007/978-981-10-7087-7
Table of Contents:
  • Intro; Preface; Contents; About the Editor; Section Editors; Contributors; Part I Optical Fiber for Communication; 1 Single-Mode Fibers for High Speed and Long-HaulTransmission; Introduction; Background and History of Optical Fiber; History of Fiber Evolution (1966-1987); History of Fiber Evolution (1987-2007); History of Fiber Evolution (2007 Onwards); Optical Fiber Designs for Long-Haul Transmission; Quantification of System Level Performance; Long-Haul and Ultra-Long-Haul Transmission Systems; Raman Gain Considerations; Unrepeatered Span Transmission Systems
  • Transmission System Modeling and ExperimentsOther Factors and Considerations; Splice Loss; Practical Benefits of Ultra-Low Attenuation and Large Effective Area Fibers; Potential Future Directions; Conclusions; References; 2 Multimode Fibers for Data Centers; Introduction of Multimode Fibers; Basics of Multimode Optical Fibers; Light Propagation, Characterization, and Link Performance; MMF Characterization: Modal Bandwidth and DMD; Source Characterization (Encircled Flux); System Link Models; Limitation of VCSEL-MMF Transmission and Novel Solutions; Limiting Factors for VCSEL-MMF Transmission
  • Chromatic Dispersion CompensationPerformance of MMF with Different Peak Wavelength in WDM-Based Transceivers; Modal Dispersion Compensation for SWDM Applications; Multimode Fiber for Long Wavelength Applications; Motivation for Long Wavelength MMF Systems; Design of MMF for Long Wavelength Transceivers; System Testing of MMF Optimized for 1060 nm; System Testing of MMF Optimized for 1310 nm; Universal Fibers, a New Fiber Concept Bridging SM and MM Transmissions in Data Centers; Universal Fiber Concept and Benefits; Fiber Designs
  • System Level Testing and Verification for Major MM and SM ApplicationsOptical Trends in Data Centers and Concluding Remarks; Optical Trends in the Data Center; Concluding Remarks; References; 3 Multi-core Fibers for Space Division Multiplexing; Introduction; Basics of the Coupled-Mode Theory for Optical Fibers; Coupled-Mode Theory for Orthogonal Modes; Coupled-Mode Theory for Non-orthogonal Modes; Reciprocity of the Mode Coupling Coefficient; Uncoupled Multi-core Fibers; Mode Coupling in Weakly Coupled MCF; Random Mode Coupling Due to Longitudinal Perturbations
  • Discrete Coupling Model and Statistical Distribution of the CrosstalkCoupled Power Theory for Predicting the Statistical Mean of the Crosstalk; Local Power Coupling Coefficient Under High-Spatial-Frequency Perturbations Without Bend Radius Change and Fiber Twisting; Power Coupling Coefficient Averaged Over Fiber Twisting; Crosstalk Suppression Strategy; Suppression of the Mode Coupling Coefficient; Suppression of the Phase Matching; Coupled Multi-core Fibers; Systematically Coupled Multi-core Fiber; Randomly Coupled Multi-core Fiber; Mechanism of Random Mode Coupling