Polymers and Polymeric Materials for Fiber and Gradient Optics (New Concepts in Polymer Science)

Polymers and Polymeric Materials for Fiber and Gradient Optics (New Concepts in Polymer Science)

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  • 製本 Hardcover:ハードカバー版/ページ数 222 p.
  • 言語 ENG,ENG
  • 商品コード 9789067643641
  • DDC分類 620.19204295

Full Description

This book considers general aspects of the theory of polymers applied in optics. The main factors affecting the light loss in polymeric wave beam guides (PG) are discussed, and the mechanism of light loss in PG is analysed. Polymers applied in fiber optics are classified with reference to methods of fabrication and purification of the materials. Technological aspects of material fabrication are considered together with kinetic aspects of polymerisation. Updated information on polymerisation kinetics of MMA and styrene, and copolymerisation of these monomers with each other is reported. Other topics discussed in the book are heterogeneity of optic copolymers, association between structure and reactivity of monomers, other properties of optic copolymers, and areas of their commercial application. This volume will be of value and interest to anyone working in the field of optic polymers, both in academia and industry.

Table of Contents

Preface                                            xi
Introduction 1 (2)
Optical properties of polymers and materials 3 (20)
based on them. General problems
Refractive index. Dispersion of refractive 3 (5)
Optical anisotropy. Birefringence 8 (1)
Optical inhomogeneity 9 (1)
Numerical aperture 10 (1)
Reasons and mechanisms for light losses 11 (6)
Reflection 11 (1)
Scattering 11 (3)
Absorption 14 (3)
The lowest (theoretical) limit of losses in 17 (1)
Light losses in polymeric media modified by 18 (5)
substitution of hydrogen atoms by atoms of
various elements
Polymers for fiber optics 23 (40)
General demands 23 (1)
Polymers for core of optical fibers 23 (34)
Polymerizational polymers and copolymers. 24 (5)
General problems of their production
Poly(methyl methacrylate) and other 29 (8)
polymers of methacrylic acid ethers - the
main materials for PG core
Modified poly(methyl methacrylate) as the 37 (6)
material for PG core
Polystyrene and styrene copolymers with 43 (11)
methyl methacrylate and alkyl
Polymers from deuterated monomers 54 (3)
Polycondensational polymers; other types of 57 (3)
polymers for PG core
Nontraditional polymerization polymers for 60 (3)
fiber optics
Polymers for covers of optical fibers 63 (32)
Fluorine-containing 67 (6)
polyalkyl(meth)acrylates and
Estimation of relative radical-forming 73 (20)
ability of monomers of the fluorine
methacrylate sequence in radical
homopolymerization and copolymerization (in
mass) with vinyl monomers and structure of
macromolecular chain of copolymers obtained
Kinetics of radical polymerization of 73 (7)
fluorine (meth)acrylates in mass
Kinetics of radical copolymerization of 80 (11)
fluorine-containing methacrylates with
vinyl monomers; relative activity of
comonomers, structure of the macrochain
and compositional inhomogeneity of
copolymers obtained
Determination of absolute rate constants 91 (2)
of chain propagation during
polymerization of fluorine-containing
Study of polymerization of 93 (2)
fluorine-containing methacrylates in the
presence of some stable radicals
Properties of PGs as information transmission 95 (6)
Transmission bandwidth 95 (2)
PG and light-emitting diodes (LEDs) 97 (4)
Polymeric media with refractive index gradient 101(90)
Classification of the refractive index 102(1)
Measurements of the main parameters of 103(2)
selfocs (metrology of selfocs).
Measurements of distribution of the
refractive index profile and the absolute
value of the refractive index by selfoc
Methods of preparing GRIN-elements 105(24)
Method of diffusion exchange 106(19)
Copolymerization method 125(2)
Method of gravitational separation 127(1)
Method of dipolephoresis 127(2)
Method of gradient modification of 129(1)
polymeric materials
Controlled gradient formation 129(62)
Main principles of formation of 129(4)
macrosurface GRIN-elements
Equipment 133(2)
Theoretical stipulation of the controlled 135(7)
gradient formation
Particular examples of realization of 142(14)
controlled heterogeneous gradient
Method of obtaining cylindrical 156(3)
(disk-like) polymeric objects with a
given radial gradient of the refractive
Method of obtaining cylindrical 159(8)
(disk-like) objects with a given radial
composition (refractive index) gradient
based on powder-like materials
Method of obtaining long polymeric 167(4)
cylindrical preforms with radial gradual
gradient of refractive index
Method of diffusion copolymerization of 171(3)
Preparing a selfoc with elliptical 174(1)
Preparing a multi-channel light focusing 175(2)
Study of γ-irradiation effect on 177(3)
optical properties of isotactic
Obtaining of macrosurface GRIN-medium by 180(4)
γ-irradiation of isotactic
Method of producing a gradient 184(7)
birefringent element
Some technical methods of producing polymeric 191(8)
waveguides (optical fibers, selfocs)
Continuous obtaining of PGs 191(1)
Discontinuous or batch production of PGs 192(1)
PG production from a preform by the method 192(2)
of preform copying
Method of core covering and method of 194(2)
compositional molding of core and cover
Preparation of Gradient-Index Polymer 196(1)
Fibers by closed extrusion method
Obtaining selfocs of unlimited length from 196(3)
thermoreactive (co)polymers
References 199(18)
Subject Index 217