The Rohrer Spectrum Laser is a high-performance laser system designed for a variety of applications, particularly in the fields of spectroscopy, materials processing, and scientific research. This laser employs advanced technology to deliver precise wavelengths and high stability, making it ideal for tasks that require accurate measurement and analysis.

Key Features:

1. Wavelength Range: The Rohrer Spectrum Laser offers a broad range of wavelengths, allowing for versatility in applications such as fluorescence spectroscopy, Raman spectroscopy, and other analytical techniques.
2. High Stability: The system is engineered for low noise and high stability, ensuring consistent performance and reliable results over extended periods.
3. User-Friendly Interface: With an intuitive user interface, the Rohrer Spectrum Laser allows researchers and technicians to easily adjust parameters and settings, facilitating rapid experimentation and data collection.
4. Compact Design: Its compact design makes it suitable for integration into existing setups without requiring extensive modifications to laboratory spaces.
5. Versatile Applications: This laser is used across various fields, including chemistry, biology, and materials science, for tasks such as analyzing chemical compositions, studying molecular interactions, and processing materials at the micro or nano scale.
6. Advanced Cooling System: The integrated cooling system helps maintain optimal operating temperatures, contributing to the longevity and reliability of the laser.
7. Customization Options: Depending on the specific needs of a project, users may have options for customizing wavelength outputs, power levels, and other operational parameters.

Applications:

• Spectroscopy: Essential for studying the interaction of light with matter, providing insights into molecular structures and chemical compositions.
• Material Processing: Used in industries for cutting, engraving, and modifying materials with high precision.
• Research: Valuable in academic and industrial research for various experiments requiring accurate light sources.

The Rohrer Spectrum Laser represents a significant advancement in laser technology, making it a vital tool for researchers and professionals aiming to achieve precise and reliable results in their work.

Key Benefits:

1. Precision and Accuracy

• Provides highly accurate wavelengths, essential for detailed analysis in spectroscopy and other applications.

2. High Stability

• Low noise and stable output ensure consistent performance, reducing variability in experimental results.

3. Versatility

• Suitable for a wide range of applications, from chemical analysis to materials processing, accommodating diverse research needs.

4. User-Friendly Operation

• An intuitive interface simplifies adjustments and settings, allowing for quicker experimentation and reduced learning curves.

5. Compact Design

• Space-efficient design facilitates easy integration into existing laboratory setups without requiring significant modifications.

6. Enhanced Cooling System

• Maintains optimal operating temperatures, prolonging the lifespan of the laser and ensuring reliable performance over time.

7. Customization Options

• Ability to tailor wavelength outputs and power levels to specific project requirements enhances its adaptability.

8. Cost-Effective

• Reduces the need for multiple instruments by providing capabilities for various applications in a single system.

9. Support for Advanced Research

• Enables cutting-edge research and development in fields like chemistry, biology, and materials science by providing a powerful light source.

10. Improved Workflow Efficiency

• Streamlined processes and reduced downtime contribute to increased productivity in research and industrial applications.

The Rohrer Spectrum Laser enhances research capabilities, improves accuracy in measurements, and supports a broad spectrum of scientific and industrial applications.

General Specifications

1. Wavelength Range:
   • Typically from UV (200 nm) to near-IR (1100 nm) depending on the model.
2. Output Power:
   • Ranges from a few milliwatts to several watts, depending on the application.
3. Beam Quality:
   • M^2 factor often < 1.5 for high-quality, focused beams.
4. Spectral Line Width:
   • Typically in the range of a few picometers to nanometers, depending on the mode of operation.
5. Pulse Duration:
   • For pulsed systems, pulse durations can range from femtoseconds to nanoseconds.
6. Repetition Rate:
   • For pulsed lasers, rates can range from single-shot to several kilohertz.
7. Cooling System:
   • Integrated active or passive cooling systems to maintain stable operation.
8. Power Supply:
   • Voltage and current specifications typically around 110-240 V, depending on the model.
9. Dimensions:
   • Compact size, often around 60 cm x 30 cm x 15 cm, but this can vary.
10. Weight:
    • Usually between 5 to 20 kg, depending on the model and features.

Connectivity

• Control Interface:
  • USB, Ethernet, or RS-232 for easy integration with computers and control systems.
• Software Compatibility:
  • Often comes with proprietary software for operation and data analysis.

Safety Features

• Class:
  • Typically classified as Class 3B or Class 4, depending on output power and wavelength.
• Interlock Systems:
  • Safety interlocks to prevent accidental exposure.

Environmental Specifications

• Operating Temperature:
  • Usually between 15°C to 30°C for optimal performance.
• Humidity:
  • Typically 10% to 85% non-condensing.