Opto-Mechanical Systems Design continues to be the reference of choice for professionals fusing optical and mechanical components into advanced, high-performance instruments.
Features:
- Offers a detailed overview of the latest developments and technologies in the field of opto-mechanics
- Explains statistical estimation of lifetime and ways to maximize fracture strength of optics
- Presents new theories for effects of temperature changes on mounting forces and stresses
- Includes new discussions of characteristics of the space environment, vibration criteria for sensitive equipment environments, and laser damage to optics
- Contains updated and expanded tables of mechanical properties featuring new materials
Contents
The Opto-Mechanical Design Process
- Conceptualization
- Performance Specifications and Design Constraints
- Preliminary Design
- Design Analysis and Computer Modeling
- Error Budgets and Tolerances
- Experimental Modeling
- Finalizing the Design
- Design Reviews
- Manufacturing the Instrument
- Evaluating the End Product
- Documenting the Design
Environmental Influences
- Parameters of Concern
- Environmental Testing of Optics
Opto-Mechanical Characteristics of Materials
- Materials for Refracting Optics
- Materials for Reflecting Optics
- Materials for Mechanical Components
- Adhesives
- Sealants
- Special Coatings for Opto-Mechanical Materials
- Techniques for Manufacturing Opto-Mechanical Parts
Mounting Individual Lenses
- Considerations of Centered Optics
- Cost Impacts of Fabrication Tolerances
- Lens Weight and Center of Gravity Location
- Mounting Individual Low-Precision Lenses
- Mountings for Lenses with Curved Rims
- Mountings Interfacing with Spherical Surfaces
- Elastomeric Mountings for Lenses
- Mounting Lenses on Flexures
- Alignment of the Individual Lens
- Mounting Plastic Lenses
Mounting Multiple Lenses
- Multielement Spacing Considerations
- Examples of Lens Assemblies with No Moving Parts
- Examples of Lens Assemblies Containing Moving Parts
- Lathe Assembly Techniques
- Microscope Objectives
- Assemblies Using Plastic Parts
- Liquid Coupling of Lenses
- Catadioptric Assemblies
- Alignment of Multi-Lens Assemblies
- Alignment of Reflecting Telescope Systems
Mounting Windows and Filters
- Conventional Window Mounts
- Special Window Mounts
- Mounts for Shells and Domes
- Conformal Windows
- Filter Mounts
- Windows Subject to a Pressure Differential
Designing and Mounting Prisms
- Geometric Relationships
- Designs for Typical Prisms
- Kinematic and Semikinematic Prism Mounting Principles
- Mounting Prisms by Clamping
- Mounting Prisms by Bonding
- Flexure Mounts for Prisms
Design and Mounting Small, Nonmetallic Mirrors, Gratings, Pellicles
- Semikinematic Mountings for Small Mirrors
- Mounting Mirrors by Bonding
- Flexure Mounts for Mirrors
- Multiple-Mirror Mounts
- Mountings for Gratings
- Pellicle Design and Mounting
Lightweight Nonmetallic Mirror Design
- Material Considerations
- Core Cell Configurations
- Cast Ribbed Substrates
- Slotted-Strut and Fused Monolithic Substrates
- Frit-Bonded Substrates
- Low-Temperature Bonded Substrates
- Machined-Core Substrates
- Contoured-Back Solid Mirror Configurations
- Thin Face Sheet Mirror Configurations
- Scaling Relationships for Lightweight Mirrors
Mounting Large, Horizontal-Axix Mirrors
- General Considerations of Gravity Effects
- V-Type Mounts
- Multipoint Edge Supports
- The Ideal Radial Mount
- Mercury Tube Mounts
- Strap and Roller-Chain Mounts
- Push-Pull Mounts
- Comparison of Dynamic Relaxation and Finite-Element Analysis Techniques
Mounting Large Vertical-Axis Mirrors
- Ring Mounts
- Air Bag (Bladder) Mounts
- Multiple-Point Supports
- Metrology Mounts
Mounting Large, Variable-Orientation Mirrors
- Mechanical Flotation Mounts
- Hydraulic/Pneumatic Mounts
- Center-Mounted Mirrors
- Mounts for Double-Arch Mirrors
- Bipod Mirror Mounts
- Thin Face Sheet Mirror Mounts
- Mounts for Large Space-Borne Mirrors
Design and Mounting of Metallic Mirrors
- General Considerations of Metal Mirrors
- Aluminum Mirrors
- Beryllium Mirrors
- Mirrors Made from Other Metals
- Mirrors with Foam and Metal Matrix Cores
- Plating of Metal Mirrors
- Single-Point Diamond Turning of Metal Mirrors
- Conventional Mountings for Metal Mirrors
- Integral Mountings for Metal Mirrors
- Flexure Mountings for Larger Metal Mirrors
- Interfacing Multiple SPDT Components to Facilitate Assembly and Alignment
Optical Instrument Stuctural Design
- Rigid Housing Configurations
- Modular Design Principles and Examples
- A Structural Design for High Shock Loading
- Athermalized Structural Designs
- Geometries for Telescope Tube Structures
Analysis of the Opto-Mechanical Design
- Failure Predictions for Optics
- Stress Generation at Opto-Mechanical Interfaces
- Parametric Comparisons of Annular Interface Types
- Bending Effects Due to Offset Annular Contacts
- Effects of Temperature Changes
- Effects of Temperature Gradients
- Stresses in Cemented and Bonded Optics Due to Temperature Changes
- Some Effects of Temperature Changes on Elastomerically Mounted Lenses
Index