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Thin-Film Optical Filters 4th New edition [Kietas viršelis]

, (Thin Film Center Inc., Tucson, Arizona, USA)
  • Formatas: Hardback, 808 pages, aukštis x plotis: 234x156 mm, weight: 1270 g, 16 figures for 8-page color insert; approx 672 equations; 33 Tables, black and white; 16 Illustrations, color; 383 Illustrations, black and white
  • Serija: Series in Optics and Optoelectronics
  • Išleidimo metai: 16-Mar-2010
  • Leidėjas: CRC Press Inc
  • ISBN-10: 1420073028
  • ISBN-13: 9781420073027
Kitos knygos pagal šią temą:
  • Formatas: Hardback, 808 pages, aukštis x plotis: 234x156 mm, weight: 1270 g, 16 figures for 8-page color insert; approx 672 equations; 33 Tables, black and white; 16 Illustrations, color; 383 Illustrations, black and white
  • Serija: Series in Optics and Optoelectronics
  • Išleidimo metai: 16-Mar-2010
  • Leidėjas: CRC Press Inc
  • ISBN-10: 1420073028
  • ISBN-13: 9781420073027
Kitos knygos pagal šią temą:
Written by a world-renowned authority of optical coatings, Thin-Film Optical Filters, Fourth Edition presents an introduction to thin-film optical filters for both manufacturers and users. The preeminent author covers an assortment of design, manufacture, performance, and application topics. He also includes enough of the basic mathematics of optical thin films to enable readers to carry out thin-film calculations.









This new edition of a bestseller retains most of the descriptions of older design techniques because of their importance in understanding how designs work. However, this edition includes a substantial amount of new material as well. A new chapter on color takes into account the increasing importance of color in optical coatings. In addition, a new section discusses the effects of gain in optical coatings.









This comprehensive yet accessible book continues to offer valuable insight into the principles, techniques, and processes of successful coating design. It provides the sound foundation required to make further advances in the field.

Recenzijos

The book by Angus Macleod is the fourth edition of the famous textbook written by a world-renowned authority in the field of optical coating. This new edition retains most of the descriptions of older design techniques but also includes a substantial amount of new material. The book is an excellent treatise of thin film coatings, explaining how to produce all sorts of different filters selected according to the function they are required to play. The book is an indispensable text for every filter manufacturer and user and is an excellent guide for students. Mario Bertolotti, Contemporary Physics, April 2012



Praise for the Third Edition: essential reading for all those involved in the design, manufacture, and application of optical coatings. a valuable addition to many bookshelves. Materials World, September 2001









continues to be a very practical guide. ASLIB Book Guide



The third edition is no less rich and includes expanded references and information on many advances in design and technology since the second edition was published in 1986 a must-have addition to the library of any optical thin-film theorist or practitioner. It provides extensive methods to use in achieving desired optical performance for a broad range of coating types and extensive references for one to use in delving deeper into these topics. Dale E. Morton, Denton Vacuum, LLC, SVC News



It is obvious from the details of his career that Angus knows more about optical coatings, both in terms of design and of fabrication, than most of us put together. It is therefore quite expected that I feel free to state that, in my opinion, this book is a necessity, rather on par with having the use of a coating facility, a good coating program, and a fast computer, for anybody in the field of thin-film optical coatings and filters. Therefore, if you are new in this field, your first priority should be to make sure that you have the undivided use of a copy of this book. All in all, the book is a good statement of the state of the art of thin-film deposition theory and practice at the turn of the millennium. Roger M. Wood, Elsevier

Preface to the Fourth Edition xiii
Symbols and Abbreviations xv
Introduction
1(12)
Early History
1(4)
Thin-Film Filters
5(5)
References
10(3)
Basic Theory
13(60)
Maxwell's Equations and Plane Electromagnetic Waves
13(8)
The Poynting Vector
18(3)
The Simple Boundary
21(21)
Normal Incidence
23(4)
Oblique Incidence
27(1)
p-Polarized Light
28(2)
s-Polarized Light
30(1)
The Optical Admittance for Oblique Incidence
31(2)
Normal Incidence in Absorbing Media
33(5)
Oblique Incidence in Absorbing Media
38(4)
The Reflectance of a Thin Film
42(3)
The Reflectance of an Assembly of Thin Films
45(3)
Reflectance, Transmittance, and Absorptance
48(3)
Units
51(1)
Summary of Important Results
52(5)
Potential Transmittance
57(3)
A Theorem on the Transmittance of a Thin-Film Assembly
60(1)
Coherence
61(5)
Incoherent Reflection at Two or More Surfaces
66(5)
References
71(2)
Theoretical Techniques
73(32)
Quarter- and Half-Wave Optical Thicknesses
73(1)
Admittance Loci
74(6)
Electric Field and Losses in the Admittance Diagram
80(7)
The Vector Method
87(2)
The Herpin Index
89(1)
Alternative Method of Calculation
89(3)
Smith's Method of Multilayer Design
92(3)
The Smith Chart
95(2)
Reflection Circle Diagrams
97(6)
References
103(2)
Antireflection Coatings
105(80)
Antireflection Coatings on High-Index Substrates
106(23)
The Single-Layer Antireflection Coating
106(6)
Double-Layer Antireflection Coatings
112(9)
Multilayer Coatings
121(8)
Antireflection Coatings on Low-Index Substrates
129(27)
The Single-Layer Antireflection Coating
130(1)
Two-Layer Antireflection Coatings
130(10)
Multilayer Antireflection Coatings
140(16)
Equivalent Layers
156(12)
Antireflection Coatings for Two Zeros
168(4)
Antireflection Coatings for the Visible and the Infrared
172(7)
Inhomogeneous Layers
179(3)
Further Information
182(1)
References
183(2)
Neutral Mirrors and Beam Splitters
185(24)
High-Reflectance Mirror Coatings
185(13)
Metallic Layers
185(2)
Protection of Metal Films
187(6)
Overall System Performance, Enhanced Reflectance
193(3)
Reflecting Coatings for the Ultraviolet
196(2)
Neutral Beam Splitters
198(7)
Beam Splitters Using Metallic Layers
198(3)
Beam Splitters Using Dielectric Layers
201(4)
Neutral-Density Filters
205(2)
References
207(2)
Multilayer High-Reflectance Coatings
209(32)
The Fabry-Perot Interferometer
209(6)
Multilayer Dielectric Coatings
215(19)
All-Dielectric Multilayers with Extended High-Reflectance Zones
225(5)
Coating Uniformity Requirements
230(4)
Losses
234(4)
References
238(3)
Edge Filters
241(58)
Thin-Film Absorption Filters
241(1)
Interference Edge Filters
242(55)
The Quarter-Wave Stack
243(1)
Symmetrical Multilayers and the Herpin Index
244(4)
Application of the Herpin Index to the Quarter-Wave Stack
248(5)
Application of the Herpin Index to Multilayers of Other Than Quarter-Waves
253(3)
Performance Calculations
256(1)
Transmission at the Edge of a Stop Band
256(2)
Transmission in the Center of a Stop Band
258(2)
Transmission in the Pass Band
260(2)
Reduction of Pass-Band Ripple
262(3)
Summary of Design Procedure so Far
265(1)
More Advanced Procedures for Eliminating Ripple
266(15)
Practical Filters
281(2)
Extending the Rejection Zone by Interference Methods
283(4)
Extending the Transmission Zone
287(8)
Reducing the Transmission Zone
295(1)
Edge Steepness
296(1)
References
297(2)
Band-Pass Filters
299(104)
Broadband-Pass Filters
299(3)
Narrowband Filters
302(40)
The Metal-Dielectric Single-Cavity Filter
302(8)
The All-Dielectric Single-Cavity Filter
310(3)
Even Number (2x) of Layers
313(2)
Odd Number (2x + 1) of Layers
315(1)
Phase Shift: Case I
316(1)
Phase Shift: Case II
317(8)
The Solid Etalon Filter
325(4)
The Effect of Varying the Angle of Incidence
329(1)
Simple Tilts in Collimated Light
329(3)
High-Index Cavities
332(1)
Low-Index Cavities
333(2)
Effect of an Incident Cone of Light
335(6)
Sideband Blocking
341(1)
Multiple Cavity Filters
342(14)
Thelen's Method of Analysis
349(7)
Higher Performance in Multiple-Cavity Filters
356(14)
Effect of Tilting
364(3)
Losses in Multiple Cavity Filters
367(1)
High-Index Cavities
368(1)
Low-Index Cavities
369(1)
Further Information
369(1)
Phase Dispersion Filter
370(7)
Multiple Cavity Metal-Dielectric Filters
377(19)
The Induced-Transmission Filter
380(1)
Potential Transmittance
381(1)
Optimum Exit Admittance
382(2)
Maximum Potential Transmittance
384(1)
Matching Stack
384(2)
Front Surface Equivalent Admittance
386(1)
Examples of Filter Designs
386(10)
Measured Filter Performance
396(3)
References
399(4)
Tilted Coatings
403(68)
Modified Admittances and the Tilted Admittance Diagram
403(8)
Application of the Admittance Diagram
411(14)
Polarizers
425(6)
The Brewster Angle Polarizing Beam Splitter
425(5)
Plate Polarizer
430(1)
Cube Polarizers
431(1)
Nonpolarizing Coatings
431(11)
Edge Filters at Intermediate Angle of Incidence
432(5)
Reflecting Coatings at Very High Angles of Incidence
437(4)
Edge Filters at Very High Angles of Incidence
441(1)
Antireflection Coatings
442(5)
p-Polarization Only
442(1)
s-Polarization Only
443(1)
s-and p-Polarization Together
444(3)
Retarders
447(17)
The Ellipsometric Parameters and Relative Retardation
447(1)
Series of Coated Surfaces
448(1)
Retarders
449(2)
Simple Retarders
451(4)
Multilayer Retarders at One Wavelength
455(4)
Multilayer Retarders for a Range of Wavelengths
459(5)
Optical Tunnel Filters
464(3)
References
467(4)
Color in Optical Coatings
471(18)
Color Definition
471(7)
The 1964 Supplementary Colorimetric Observer
478(1)
Metamerism
479(1)
Other Color Spaces
480(1)
Hue and Chroma
481(1)
Brightness and Optimal Stimuli
482(3)
Colored Fringes
485(2)
References
487(2)
Production Methods and Thin-Film Materials
489(80)
The Production of Thin Films
490(30)
Thermal Evaporation
491(10)
Energetic Processes
501(12)
Other Processes
513(4)
Baking
517(3)
Measurement of the Optical Properties
520(20)
Measurement of the Mechanical Properties
540(10)
Toxicity
550(1)
Summary of Some Properties of Common Materials
551(10)
References
561(8)
Factors Affecting Layer and Coating Properties
569(26)
Microstructure and Thin-Film Behavior
569(15)
Sensitivity to Contamination
584(8)
References
592(3)
Layer Uniformity and Thickness Monitoring
595(46)
Uniformity
595(9)
Flat Plate
597(1)
Spherical Surface
598(1)
Rotating Substrates
598(5)
Use of Masks
603(1)
Substrate Preparation
604(3)
Thickness Monitoring and Control
607(14)
Optical Monitoring Techniques
608(10)
The Quartz-Crystal Monitor
618(2)
Monitoring by Deposition Time
620(1)
Tolerances
621(15)
References
636(5)
Specification of Filters and Environmental Effects
641(14)
Optical Properties
641(7)
Performance Specification
641(3)
Manufacturing Specification
644(1)
Test Specification
644(4)
Physical Properties
648(5)
Abrasion Resistance
648(3)
Adhesion
651(1)
Environmental Resistance
652(1)
References
653(2)
System Considerations: Applications of Filters and Coatings
655(52)
Potential Energy Grasp of Interference Filters
659(6)
Narrowband Filters in Astronomy
665(5)
Atmospheric Temperature Sounding
670(9)
Order Sorting Filters for Grating Spectrometers
679(12)
Glare Suppression Filters and Coatings
691(4)
Some Coatings Involving Metal Layers
695(10)
Electrode Films for Schottky-Barrier Photodiodes
695(3)
Spectrally Selective Coatings for Photothermal Solar Energy Conversion
698(5)
Heat Reflecting Metal-Dielectric Coatings
703(2)
References
705(2)
Other Topics
707(52)
Rugate Filters
707(11)
Ultrafast Coatings
718(11)
Automatic Methods
729(11)
Gain in Optical Coatings
740(8)
Oblique Incidence
744(4)
Photonic Crystals
748(8)
What Is a Photonic Crystal?
750(1)
Two-Dimensional Photonic Crystals
750(1)
One-Dimensional Photonic Crystals
751(5)
References
756(3)
Characteristics of Thin-Film Dielectric Materials
759(12)
References
766(5)
Bibliography 771(2)
Index 773
H. Angus Macleod is President of the Thin Film Center Inc. in Tucson, Arizona, and Professor Emeritus of Optical Sciences at the University of Arizona.