Optomechanics Handbook

Turn an optical design into hardware that still performs when gravity, temperature, vibration, manufacturing tolerances, and the real world begin working against it.

• Select optical and structural materials using stiffness, mass, thermal expansion, and stability criteria
• Design kinematic and semi-kinematic mounts without harmful overconstraint
• Mount lenses, mirrors, prisms, windows, filters, and large lightweight optics
• Control thermal expansion, gradients, vibration, resonance, and gravity sag
• Build tolerance budgets and translate optical requirements into mechanical tolerances
• Apply passive and active athermalization techniques
• Analyze mount-induced stress, birefringence, and wavefront error
• Use finite element analysis and structural-optical workflows to predict performance
• Design flexures, precision stages, actuators, bearings, and motion systems
• Engineer hardware for contamination control, cryogenic operation, launch loads, vacuum, and extreme environments
• Plan alignment, environmental testing, verification, manufacturability, and integration

Build optical hardware that performs outside the computer model-add this practical optomechanics reference to your engineering library today.