Detailed information Ekspla NT260 Christian Bischoff 21. May 2025

NT260

High-repetition, narrow-band tunable nanosecond laser

The NT262 offers seamless tuning from 192 to 2600 nm with a repetition rate of 10 kHz – all in one device.
With an output power of up to 0.7 W and a line width of up to 1.5 cm-¹, the laser offers significant advantages in demanding applications such as the calibration of detectors and spectroradiometers, metrology or gas spectroscopy.

TOPAG_tunable_nanosecond_laser_NT262
Developed and manufactured by:
Features
  • Innovative patented technology for Q-switched / mode-locked operation
  • Seamless wavelength tuning in the range from 192 – 2600 nm
  • Repetition rate of 10 kHz
  • Output power up to 0.7 W
  • Line width up to 1.5 cm-¹
  • Integrated monitoring of pump and output power
  • Integrated fast wavelength scan
  • Monolithic, robust housing
  • Flexible control via keyboard or PC
  • Two-year warranty
Applications
  • Measurement technology & device calibration
  • Adjustment of hyperspectral cameras
  • Time-of-flight mass spectrometry (TOF)
  • Inspection of semiconductors
  • Evaluation of optical filters
  • Photoacoustic microscopy
  • Laser-induced luminescence spectroscopy
  • Environmental monitoring, LIDAR

Personal consultation or product inquiry

Applications
TOPAG_Ekspla_Solid-Phase_Photoluminescence
Emission that provides insights

Photoluminescence spectroscopy (PL) is a non-contact method for investigating the electronic and structural properties of materials…

TOPAG_Ekspla_Photo_Acoustic
Hearing with light - seeing with sound
Laser-based photoacoustic imaging is an innovative method that combines light and sound to generate high-resolution images of biological tissue. Tissue is irradiated with short, usually spectrally tunable laser pulses. These lead to minimal local heating and thus generate ultrasonic waves, which are measured and converted into images.

TOPAG_Ekspla_LIDAR
Distance as a data source

LIDAR emits short laser pulses that are scattered by particles, aerosols or molecules in the atmosphere and detected by a telescope. The distance is calculated from the travel time of the light, creating a spatial profile along the beam. LIDAR uses UV, visible or near-infrared light and is suitable for detecting a wide variety of materials – even in environments that are difficult to access.

Applications
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