Optomechanical

Part Number	Description / PDF	Quantity
G060403000 Excelitas Technologies	Q-SET VARIABLE ATTENUATOR 532 NM	1
G080111000 Excelitas Technologies	LINEAR STAGE T 10 M	2
G038878000 Excelitas Technologies	C-MOUNT ADAPTER M17	1
G065092000 Excelitas Technologies	POSITIONING RING 30	7
G061647000 Excelitas Technologies	LENS TURRET 4X WITH C-MOUNT ADAP	8
G067054000 Excelitas Technologies	ADAPTER 25/FC	20
G061062000 Excelitas Technologies	XYZ - FINE ADJUSTMENT UNIT MB	5
G065063000 Excelitas Technologies	MOUNTING TURRET, 5 POSITIONS	3
G061225000 Excelitas Technologies	HOLDER 30	49
G063733000 Excelitas Technologies	ROTATION ADJUSTMENT FOR CUBE INS	10
G061211000 Excelitas Technologies	ROD 300 MM	34
G169005000 Excelitas Technologies	FOCUSABLE COLLIMATOR MB 06	1
G061219000 Excelitas Technologies	ROD 150 MM WITH SCALE	7
G038857000 Excelitas Technologies	FC FIBER ADAPTER 3,5	7
G061168000 Excelitas Technologies	ADAPTER 1.035 -40UN / 30	5
G065074000 Excelitas Technologies	ADJUSTABLE OPTIC HOLDER 31.5 M	2
G061161000 Excelitas Technologies	COUNTER SUPPORT	10
G065040000 Excelitas Technologies	X-Y PRECISION TRANSLATION STAGE	10
G061086000 Excelitas Technologies	CUVETTE HOLDER	1
G060401000 Excelitas Technologies	Q-SET VERTICAL ADJUSTMENT	2

Optomechanical

1. Overview

Optoelectronics optomechanical systems integrate optical and mechanical engineering principles to design, develop, and operate devices that manipulate light-matter interactions. These systems enable precise control of optical components (e.g., lenses, mirrors, detectors) through mechanical structures, ensuring stability, alignment, and functionality in advanced applications. They play a critical role in fields such as laser technology, precision measurement, and optical communication.

2. Major Types and Functional Classification

Type	Functional Features	Application Examples
Optical Mounts	Adjustable mechanical supports for optical components	Laser beam alignment, interferometers
Optical Tables	Vibration-isolated platforms for optical experiments	Photonics labs, semiconductor manufacturing
Laser Mechanical Assemblies	Structures for laser cavity alignment and cooling	Industrial laser cutting, medical lasers
Photodetector Modules	Integrated sensors with optical and mechanical packaging	LiDAR, optical communication receivers
Fiber Optic Mechanics	Alignment systems for fiber optic connectors	Telecom networks, fiber lasers

3. Structure and Components

A typical optomechanical system consists of:

Mechanical Framework: Aluminum or steel bases for structural stability
Adjustment Mechanisms: Micrometers, piezo actuators for precision alignment
Optical Mounts: Kinematic mounts for lenses, mirrors, and detectors
Thermal Management: Heat sinks or cooling channels for laser systems
Integration Interfaces: Standardized connectors (e.g., SMA, FC) for optical fibers

4. Key Technical Specifications

Parameter	Description	Importance
Adjustment Resolution	Minimum angular/linear displacement ( rad/ m)	Determines alignment precision
Load Capacity	Maximum weight supported (kg)	Affects system stability
Material Compatibility	Thermal expansion coefficients ( in ppm/ C)	Ensures environmental stability
Vibration Isolation	Resonant frequency (Hz) and damping ratio	Reduces noise in sensitive measurements
Optical Throughput	Transmission efficiency (%) across wavelength range	Impacts system performance in photonics

5. Application Fields

Major industries and equipment include:

Industrial: Laser cutting machines, 3D printers
Scientific: Spectrometers, atomic force microscopes
Medical: Endoscopic imaging systems, OCT scanners
Telecom: DWDM optical transceivers, fiber amplifiers
Defense: Targeting systems, infrared cameras

6. Leading Manufacturers and Products

Manufacturer	Representative Product	Key Specifications
Thorlabs	Kinesis K100LMS Stage	0.1 m resolution, 100 mm travel
Newport	XR7000 Optical Table	0.5 Hz resonant frequency, 1000 kg load
Lumentum	High-Power Laser Module	10 kW output, active cooling
Hamamatsu Photonics	C12798-01 Photodetector	160 dB dynamic range, 0.1 ns response
3M	Fiber Optic Alignment Tool	0.01 dB insertion loss

7. Selection Guidelines

Key considerations include:

Environmental conditions (temperature, vibration)
Optical wavelength compatibility (UV to IR)
Required degrees of freedom for alignment
Integration with existing optical systems
Cost vs. precision trade-offs

8. Industry Trends

Emerging developments include:

Microelectromechanical systems (MEMS) for miniaturized optics
AI-driven optomechanical alignment algorithms
Advanced composites for ultra-low thermal expansion
Integrated photonics packaging for 5G networks
Green manufacturing techniques for optomechanical components