Atnaujinkite slapukų nuostatas

Thin-Film Optical Filters, Third Edition 3rd New edition [Kietas viršelis]

4.40/5 (10 ratings by Goodreads)
  • Formatas: Hardback, 668 pages, aukštis x plotis: 229x152 mm, weight: 1043 g
  • Serija: Series in Optics and Optoelectronics
  • Išleidimo metai: 26-Jan-2001
  • Leidėjas: Institute of Physics Publishing
  • ISBN-10: 0750306882
  • ISBN-13: 9780750306881
Kitos knygos pagal šią temą:
  • Formatas: Hardback, 668 pages, aukštis x plotis: 229x152 mm, weight: 1043 g
  • Serija: Series in Optics and Optoelectronics
  • Išleidimo metai: 26-Jan-2001
  • Leidėjas: Institute of Physics Publishing
  • ISBN-10: 0750306882
  • ISBN-13: 9780750306881
Kitos knygos pagal šią temą:
Very common optical coatings are those that give the faint, reflected color to the lenses in cameras, binoculars, and spectacles. The thin metal layer that makes the difference between a mirror and a simple sheet of glass is an optical coating. But, optical coatings are used in many more applications-a particularly important current one being the splitting and combining of optical channels of communication that are directed through a common optical fiber. Most modern optical systems could not function without optical coatings. The telecommunications industry uses various types of coatings, such as antireflection coatings, polarizers, and dichroic coatings, in personal displays, computer monitors, and projection TV systems. Optical coatings are an integral part of semiconductor laser systems, CD and DVD optical systems, and fiber-optic networks.

First published in 1969, Thin Film Optical Filters still serves as the major reference and textbook in the field. This third edition provides a unified treatment of the design, manufacture, performance, and application of optical thin films. It includes the mathematics necessary for readers to carry out thin-film calculations and contains extensive reference to the original literature. The coverage of optical filters includes antireflection and high-reflectance coatings. This is a comprehensive introduction to thin-film optical filters written for professionals in industry and those entering the field. It also provides a solid foundation for students in appropriate graduate courses.
Foreword to the third edition xiii
Foreword to the second edition xv
Apologia to the first edition xix
Symbols and abbreviations xxiii
Introduction
1(11)
Early history
1(4)
Thin-film filters
5(7)
References
9(3)
Basic theory
12(74)
Maxwell's equations and plane electromagnetic waves
12(6)
The Poynting vector
17(1)
The simple boundary
18(19)
Normal incidence
20(3)
Oblique incidence
23(4)
The optical admittance for oblique incidence
27(2)
Normal incidence in absorbing media
29(5)
Oblique incidence in absorbing media
34(3)
The reflectance of a thin film
37(3)
The reflectance of an assembly of thin films
40(3)
Reflectance, transmittance and absorptance
43(3)
Units
46(1)
Summary of important results
46(4)
Potential transmittance
50(2)
Quarter- and half-wave optical thicknesses
52(1)
A theorem on the transmittance of a thin-film assembly
53(2)
Admittance loci
55(5)
Electric field and losses in the admittance diagram
60(6)
The vector method
66(1)
Incoherent reflection at two or more surfaces
67(5)
Other techniques
72(14)
The Herpin index
72(1)
Alternative method of calculation
73(2)
Smith's method of multilayer design
75(2)
The Smith chart
77(3)
Reflection circle diagrams
80(5)
References
85(1)
Antireflection coatings
86(72)
Antireflection coatings on high-index substrates
87(21)
The single-layer antireflection coating
87(5)
Double-layer antireflection coatings
92(10)
Multilayer coatings
102(6)
Antireflection coatings on low-index substrates
108(27)
The single-layer antireflection coating
110(1)
Two-layer antireflection coatings
111(7)
Multilayer antireflection coatings
118(17)
Equivalent layers
135(4)
Antireflection coatings for two zeros
139(5)
Antireflection coatings for the visible and the infrared
144(8)
Inhomogeneous layers
152(4)
Further information
156(2)
References
156(2)
Neutral mirrors and beam splitters
158(21)
High-reflectance mirror coatings
158(11)
Metallic layers
158(2)
Protection of metal films
160(4)
Overall system performance, boosted reflectance
164(3)
Reflecting coatings for the ultraviolet
167(2)
Neutral beam splitters
169(7)
Beam splitters using metallic layers
169(3)
Beam splitters using dielectric layers
172(4)
Neutral-density filters
176(3)
References
177(2)
Multilayer high-reflectance coatings
179(31)
The Fabry-Perot interferometer
179(6)
Multilayer dielectric coatings
185(19)
All-dielectric multilayers with extended high-reflectance zones
193(7)
Coating uniformity requirements
200(4)
Losses
204(6)
References
208(2)
Edge filters
210(47)
Thin-film absorption filters
210(1)
Interference edge filters
211(46)
The quarter-wave stack
211(2)
Symmetrical multilayers and the Herpin index
213(10)
Performance calculations
223(32)
References
255(2)
Band-pass filters
257(91)
Broadband-pass filters
257(3)
Narrowband filters
260(33)
The metal-dielectric Fabry-Perot filter
260(6)
The all-dielectric Fabry-Perot filter
266(14)
The solid etalon filter
280(3)
The effect of varying the angle of incidence
283(10)
Sideband blocking
293(1)
Multiple cavity filters
293(13)
Thelen's method of analysis
300(6)
Higher performance in multiple cavity filters
306(13)
Effect of tilting
315(1)
Losses in multiple cavity filters
316(1)
Case I: high-index cavities
317(1)
Case II: low-index cavities
318(1)
Further information
318(1)
Phase dispersion filter
319(6)
Multiple cavity metal-dielectric filters
325(17)
The induced-transmission filter
328(6)
Examples of filter designs
334(8)
Measured filter performance
342(6)
References
345(3)
Tilted coatings
348(45)
Introduction
348(1)
Modified admittances and the tilted admittance diagram
349(13)
Polarisers
362(6)
The Brewster angle polarising beam splitter
362(4)
Plate polariser
366(1)
Cube polarisers
367(1)
Nonpolarising coatings
368(9)
Edge filters at intermediate angle of incidence
368(6)
Reflecting coatings at very high angles of incidence
374(2)
Edge filters at very high angles of incidence
376(1)
Antireflection coatings
377(5)
p-polarisation only
378(1)
s-polarisation only
379(2)
s-and p-polarisation together
381(1)
Retarders
382(7)
Achromatic quarter- and half-wave retardation plates
382(3)
Multilayer phase retarders
385(4)
Optical tunnel filters
389(4)
References
391(2)
Production methods and thin-film materials
393(69)
The production of thin films
394(24)
Thermal evaporation
395(10)
Energetic processes
405(8)
Other processes
413(4)
Baking
417(1)
Measurement of the optical properties
418(18)
Measurement of the mechanical properties
436(9)
Toxicity
445(1)
Summary of some properties of common materials
446(16)
References
456(6)
Factors affecting layer and coating properties
462(26)
Microstructure and thin-film behaviour
462(16)
Sensitivity to contamination
478(10)
References
485(3)
Layer uniformity and thickness monitoring
488(35)
Uniformity
488(9)
Flat plate
490(1)
Spherical surface
490(1)
Rotating substrates
490(7)
Substrate preparation
497(2)
Thickness monitoring
499(12)
Optical monitoring techniques
500(9)
The quartz-crystal monitor
509(2)
Tolerances
511(12)
References
520(3)
Specification of filters and environmental effects
523(13)
Optical properties
523(7)
Performance specification
523(3)
Manufacturing Specification
526(1)
Test Specification
527(3)
Physical properties
530(6)
Abrasion Resistance
530(3)
Adhesion
533(1)
Environmental Resistance
533(2)
References
535(1)
System considerations: applications of filters and coatings
536(52)
Potential energy grasp of interference filters
540(5)
Narrowband filters in astronomy
545(5)
Atmospheric temperature sounding
550(9)
Order-sorting filters for grating spectrometers
559(11)
Glare suppression filters and coatings
570(5)
Some coatings involving metal layers
575(13)
Electrode films for Schottky-barrier photodiodes
575(4)
Spectrally selective coatings for photothermal solar energy conversion
579(4)
Heat reflecting metal-dielectric coatings
583(2)
References
585(3)
Other topics
588(33)
Rugate filters
588(11)
Ultrafast coatings
599(11)
Automatic methods
610(11)
References
619(2)
Characteristics of thin-film dielectric materials
621(10)
References
628(3)
Index 631