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Mounting Optics in Optical Instruments Nineteenth ed., v. PM110 [Multiple-component retail product]

  • Formaat: Multiple-component retail product, 570 pages, kõrgus: 230 mm, Contains 1 Hardback and 1 CD-ROM
  • Sari: SPIE Press Monograph No 110
  • Ilmumisaeg: 01-Nov-2002
  • Kirjastus: SPIE Press
  • ISBN-10: 0819443328
  • ISBN-13: 9780819443328
  • Formaat: Multiple-component retail product, 570 pages, kõrgus: 230 mm, Contains 1 Hardback and 1 CD-ROM
  • Sari: SPIE Press Monograph No 110
  • Ilmumisaeg: 01-Nov-2002
  • Kirjastus: SPIE Press
  • ISBN-10: 0819443328
  • ISBN-13: 9780819443328
Describes techniques for mounting lenses, windows, filters, shells, domes, prisms, and mirrors in optical instruments. The author evaluates the advantages and disadvantages of various mounting arrangements, and provides some analytical tools for comparing different optomechanical designs. The estimation of mounting stresses and the effects of temperature changes are also reviewed. Much of the material has been previously published in other books by the author. The included CD-ROM contains an Excel worksheet for solving equations. Annotation c. Book News, Inc., Portland, OR (booknews.com)
Preface xiii
Terms and Symbols xv
Introduction
1(20)
Applications of Optical Components
1(2)
Key Environmental Considerations
3(4)
Temperature
4(1)
Pressure
4(1)
Moisture and other contamination
5(1)
Vibration and shock
5(2)
Radiation
7(1)
Fungus
7(1)
Abrasion and erosion
7(1)
Extreme Service Environments
7(3)
Environmental Testing
10(1)
Key Material Properties
10(7)
Optical glasses
11(3)
Optical plastics
14(1)
Optical crystals
14(1)
Mirror materials
14(1)
Materials for mechanical components
15(1)
Adhesives and sealants
16(1)
Dimensional Instability
17(4)
References
18(3)
The Optic-to-Mount Interface
21(12)
Mechanical Constraints
21(8)
General considerations
21(1)
Lens interfaces
22(3)
Prism interfaces
25(4)
Mirror interfaces
29(1)
Interfaces with other optical components
29(1)
Consequences of Mounting Forces
29(1)
Sealing Considerations
30(1)
Cost and Manufacturability
31(2)
References
32(1)
Mounting Individual Lenses
33(60)
Spring Mountings for Lenses and Filters
33(2)
Burnished Cell Mountings
35(1)
Snap and ``Interference Fit'' Rings
36(7)
Retaining Ring Constraints
43(10)
Threaded retaining ring
44(4)
Clamping (flange) ring
48(4)
Distributing preload uniformly
52(1)
Constraining the Lens with Multiple Spring Clips
53(3)
Geometry of the Lens-to-Mount Interface
56(10)
The ``sharp-corner'' interface
56(3)
The tangential (conical) interface
59(1)
The toroidal interface
60(3)
The spherical interface
63(2)
Interfaces on bevels
65(1)
Elastomeric Mountings
66(9)
Advantages of a Spherical Lens Rim
75(1)
Flexure Mountings
76(5)
Aligning the Lens in Its Mount
81(7)
Mounting Plastic Components
88(5)
References
90(3)
Multiple-Component Lens Assemblies
93(42)
Spacer Design and Manufacture
93(8)
Drop-In Assembly
101(1)
Lathe Assembly
102(2)
``Poker-Chip'' Assembly
104(4)
Precision Alignment of Multiple-Lens Assemblies
108(8)
Assemblies with Plastic Housings and Lenses
116(1)
Modular Assembly
117(4)
Catadioptric Systems
121(2)
Sealing and Purging Considerations
123(3)
Internal Mechanisms
126(9)
Focus mechanisms
126(4)
Zoom mechanisms
130(1)
References
131(4)
Mounting Optical Windows, Filters, Shells, and Domes
135(20)
Simple Window Mountings
135(4)
Mounting ``Special'' Windows
139(6)
Windows Subject to Pressure Differential
145(2)
Filter Mountings
147(4)
Mounting Shells and Domes
151(4)
References
152(3)
Prism Design
155(38)
Geometric Considerations
155(7)
Refraction and reflection
155(6)
Total internal reflection
161(1)
Aberration Contributions of Prisms
162(1)
Typical Prism Configurations
163(30)
Right-angle prism
163(1)
Beamsplitter (or beamcombiner) cube prism
163(2)
Amici prism
165(1)
Porro prism
166(1)
Abbe version of the Porro prism
167(1)
Rhomboid prism
167(2)
Porro erecting system
169(1)
Abbe erecting system
169(1)
Penta prism
170(1)
Roof penta prism
170(1)
Amici/penta erecting system
170(3)
Dove prism
173(1)
Double Dove prism
173(2)
Reversion prism
175(1)
Pechan prism
176(1)
Delta prism
177(1)
Schmidt prism
178(1)
45° Bauernfeind prism
179(1)
Internally reflecting axicon prism
179(1)
Cube corner prism
180(1)
Biocular prism system
181(1)
Dispersing prisms
182(3)
Thin-wedge prisms
185(2)
Risley wedge system
187(1)
Sliding wedge
187(1)
Focus-adjusting wedge system
187(2)
Anamorphic prism systems
189(3)
References
192(1)
Techniques for Mounting Prisms
193(34)
Semikinematic Mountings
193(15)
Mechanically Clamped Nonkinematic Mountings
208(4)
Bonded Prism Mountings
212(10)
General considerations
212(4)
Cantilevered bonding techniques
216(1)
Double-sided bonded support techniques
217(5)
Flexure Mountings for Prisms
222(5)
References
224(3)
Mirror Design
227(42)
First- and Second-Surface Mirrors
227(6)
Determination of Mirror Aperture
233(2)
Weight Reduction Techniques
235(25)
Contoured-back configurations
237(10)
Cast ribbed substrate configurations
247(1)
Machined-back and built-up structural configurations
248(9)
Thin facesheet configurations
257(3)
Metallic Mirrors
260(4)
Pellicles
264(5)
References
267(2)
Techniques for Mounting Small Mirrors
269(42)
Mechanically Clamped Mirror Mountings
269(8)
Bonded Mirror Mountings
277(4)
Multiple Mirror Mountings
281(6)
Flexure Mountings for Mirrors
287(8)
Center Mountings for Circular-Aperture Mirrors
295(2)
Mounting Metal Mirrors
297(3)
Gravitational Effects on Small Mirrors
300(11)
References
308(3)
Techniques for Mounting Large Mirrors
311(60)
Mounts for Variable-Orientation Applications
311(32)
Counterweighted lever-type mountings
311(1)
General principles
311(2)
The 2.13-m (84-in.) Kitt Peak telescope
313(3)
The 5.1-m (200-in.) Hale telescope
316(3)
Hindle Mounts
319(1)
The 10-m (394-in.) Keck telescope
319(4)
A laser beam expander
323(3)
The SOFIA telescope
326(3)
Pneumatic and hydraulic mounts
329(1)
General principles
329(4)
A large LTK telescope
333(1)
The converted ``multiple mirror'' telescope
334(6)
The Gemini telescopes
340(3)
Mounts for Fixed-Orientation Applications
343(14)
General principles
343(5)
Air bag-type axial supports
348(2)
Spring-type axial supports
350(4)
Mercury tube and strap radial supports
354(1)
Mercury tube supports
354(1)
Strap supports
354(3)
Supports for Large, Spaceborne Mirrors
357(14)
General considerations
357(1)
The infrared astronomical satellite telescope
357(3)
The Hubble telescope
360(4)
The Chandra telescope
364(3)
References
367(4)
Estimation of Mounting Stresses in Optical Components
371(32)
General Considerations
371(1)
Average Compressive Stress
372(1)
Peak Axial Contact Stress in a Lens
373(8)
The sharp-corner interface
376(2)
The tangential interface
378(2)
The toroidal interface
380(1)
The spherical interface
381(1)
The flat-bevel interface
381(1)
Parametric Comparisons of Interface Types
381(5)
Contact Stress in a Lens Clamped with Spring Clips
386(5)
Springs with spherical pads
386(4)
Springs with cylindrical pads
390(1)
Contact Stress in Small Clamped Mirrors
391(1)
Contact Stress in Clamped Prisms
392(5)
Contact stress with curved interfaces
392(5)
Contact stress at flat prism locating pads
397(1)
Tensile Stress in the Single-Sided Bonded Interface
397(1)
Bending Stresses in Circular-Aperture Clamped Optics
398(5)
Causes of bending
398(1)
Bending stress in the optical component
399(1)
Change in surface sag of a bent optic
400(2)
References
402(1)
Effects of Temperature Changes on Optical Component Mountings
403(40)
Athermalization Techniques
403(11)
Reflective systems
403(3)
Refracting systems
406(8)
Effects of Temperature Gradients
414(4)
Radial temperature gradients
415(2)
Axial temperature gradients
417(1)
Change in Axial Preload Caused by a Temperature Change
418(4)
Change in Lens Axial Clearance at Increased Temperature
422(1)
Providing Residual Axial Preload on a Lens at Maximum Temperature
423(1)
Contact Stress in a Lens at Low Temperature
424(1)
Stress in Multiple-Lens Assemblies
425(7)
Cemented doublet lens
425(3)
Air-spaced doublet lens
428(4)
General case of the multiple-component lens
432(1)
Radial Stresses in Rim-Mounted, Circular-Aperture Optics
432(4)
Radial stress in an optic at low temperature
433(2)
Tangential (hoop) stress in the mount wall
435(1)
Growth of Radial Clearance at Increased Temperatures
436(1)
Thermally Induced Stresses in Bonded Optics
437(6)
References
440(3)
Hardware Examples
443(82)
Lens Assembly Designed to Resist Thermal Shock
443(2)
Infrared Sensor Lens Assembly
445(1)
Cemented Doublet Binocular Objective Assembly
446(1)
Modular Binocular Objective Assembly
447
Air-Spaced Triplet Telescope Objective Assembly
446(3)
Commercial Mid-IR Lenses
449(3)
Motorized Dual Field-of View Lens Assembly
452(1)
All-Plastic Projection Lens Assembly
452(4)
Microscope Objective Assembly
456(1)
A Simple Focusing Eyepiece Assembly
457(2)
Collimator Assembly Designed for High Shock Loading
459(3)
Elastomeric-Supported Camera Lens Assembly
462(1)
Projection Lens Assembly
463(1)
Astrographic Telescope Objective Assembly
464(2)
Solid Catadioptric Lens Assembly
466(3)
All-Aluminum Catadioptric Lens Assembly
469(2)
Catadioptric Star-Mapping Objective Assembly
471(2)
Long-Focal-Length Catadioptric Camera Objective Assembly
473(4)
A 72-in. (1.8-m) Focal Length f/4 Aerial Camera Objective
477(5)
Passively Stabilized 10:1 Zoom Lens Assembly
482(2)
Camera Assembly for the DEIMOS Spectrograph
484(2)
Nine Cameras for the Earth-Observing System, Multiangle Imaging Spectro-adiometer
486(4)
Bonded Porro Prism Erecting System for a Binocular
490(5)
Large Flexure-Mounted Mirror Assembly
495(2)
Mountings for Large Dispersing Prisms in an Echellette Spectrograph/Imager
497(5)
Mountings for Prisms in an Articulated Telescope
502(4)
Semikinematic Design for Constraining a Penta Prism with Springs
506(8)
Constraint perpendicular to the plane of reflection
506(3)
Constraint in the plane of reflection
509(5)
Mounting for the Geostationary Operational Environmental Satellite Telescope Secondary Mirror
514(1)
Mounting for the Far Ultraviolet Spectroscopic Explorer Spectrograph Gratings
515(4)
Mounting Configuration for the Very Large Telescope Secondary Mirror
519(6)
References
520(5)
Appendix A Unit Conversion Factors 525(2)
Appendix B Mechanical Properties of Materials 527(46)
B1 Selected mechanical properties of 68 selected Schott glasses
528(4)
B2 Comparison of 11 lightweight optical glasses (L) with the nearest standard glass types (S)
532(1)
B3 Selected optical and mechanical characteristics of commonly used optical plastics
533(2)
B4 Optomechanical properties of selected alkali halides and alkaline earth halides
535(2)
B5 Mechanical properties of selected IR-transmitting glass and other oxides
537(3)
B6 Mechanical properties of diamond and selected IR-transmitting semiconductor materials
540(2)
B7 Mechanical properties of selected IR-transmitting chalcogenide materials
542(1)
B8a Mechanical properties of selected nonmetallic mirror substrate materials
543(2)
B8b Mechanical properties of selected metallic and composite mirror substrate materials
545(2)
B9 Comparison of material figures of merit especially pertinent to mirror design
547(2)
B10a Characteristics of aluminum alloys used in mirrors
549(1)
B10b Characteristics of aluminum matrix composites
550(1)
B10C Beryllium grades and some of their properties
551(1)
B10d Characteristics of major silicon carbide types
552(1)
B11 Techniques for machining, finishing, and coating materials for optical applications
553(1)
B12 Mechanical properties of selected metals used for mechanical parts in optical instruments
554(4)
B13 Typical physical characteristics of optical cements
558(1)
B14 Typical characteristics of representative structural adhesives
559(5)
B15 Typical physical characteristics of representative elastomeric sealants
564(2)
B16 Typical minimum values for fracture strength SF of infrared window materials
566(1)
B17 Coefficient of thermal defocus (δ) and thermo-optical coefficient (γ) for selected optical materials
567(6)
Appendix C Torque-Preload Relationship for a Threaded Retaining Ring 573(2)
Appendix D The Lens Temperature Sensitivity Factor K3 575(4)
Index 579