High Power Quasi-CW Quantum Cascade Laser at 9.3um

Specifications

Output Power (avg): 2 W
Wavelength: 9.3 um
Pulse Duration: 200 – 500 ns
Tuning Range Around Center Wavelength: Not Applicable
Wavelength Range: um
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Features

  • High Average Power Output: The Model 1101-XX-QCW-YYYY-MicroTT-EXT produces over 2 W of average power at a wavelength of 4.6 µm. Other wavelengths between 3.8 and 12 µm are available.
  • Quasi-CW Operation: The system operates in a high duty cycle pulsed mode, factory-set for optimal performance.
  • Pulse Specifications: Standard output includes pulses ranging from ~200 ns to 500 ns with a repetition rate of ~500 kHz to 2.0 MHz, achieving a ~50% duty cycle.
  • Customizable Options: Optional features include variable duty cycle from 0.05% to 50%, variable pulse amplitude, and synchronization with external TTL pulse sequences.
  • Wavelength Flexibility: Available wavelengths include ~3.8 µm, ~4.0 µm, 4.6 µm, 7.1 µm, 8.5 µm, and 9.3 µm. Custom wavelengths between 3.8 µm and 12 µm can be ordered.
  • Beam Quality and Divergence: The system offers excellent beam quality with 5 mrad vertical and horizontal beam divergence.
  • Collimated Output Beam: The nearly collimated output beam has a spot size of approximately 4 mm, facilitated by a lens within the hermetically sealed QCL package.
  • Compact and Lightweight Design: The laser head measures 5.5” (L) x 1.8” (W) x 1.8” (H) and weighs only 11 oz, making it ideal for benchtop use.
  • Power Supply Options: The system operates on an external 20 V DC power supply (included) and offers an optional internal battery operation using four CR123A batteries, providing over 30 minutes of runtime for a 2 W QCL.
  • Reliable and Stable: The hermetically sealed QCL package ensures high reliability in all environments, requiring no field adjustments and maintaining stability over long periods in stable temperature conditions.

 

Applications

  • Infrared Spectroscopy: Utilize the high average power and specific wavelengths for precise molecular analysis.
  • Gas Sensing: Ideal for detecting and measuring gas concentrations due to its ability to operate at various infrared wavelengths.
  • Environmental Monitoring: Monitor pollutants and greenhouse gases with high sensitivity and accuracy.
  • Industrial Process Control: Use in manufacturing settings for real-time monitoring and control of processes involving infrared-active compounds.
  • Medical Diagnostics: Apply in non-invasive diagnostics and imaging, leveraging its tunable wavelength capabilities.
  • Scientific Research: Suitable for laboratory applications requiring stable and high-power infrared sources.
  • Military and Defense: Use in secure communication systems and target designation due to its high power and reliability.
  • Remote Sensing: Effective for atmospheric studies and remote detection of substances over large distances.
  • Material Analysis: Perform detailed analysis of materials through their infrared absorption characteristics.