Single Housing Mid-Infrared Tunable Picosecond Laser System
Tunable Wavelength Picosecond Laser
Single Housing Mid-Infrared Tunable Picosecond Laser System
High Energy Broadly Tunable Picosecond OPA
High Energy Broadly Tunable DPSS Lasers
Broadly Tunable kHz Pulsed DPSS Lasers
Tunable Wavelength UV-NIR Range DPSS Lasers
Narrow Linewidth 10 kHz Tunable Laser
Tunable Wavelength NIR-MIR Range DPSS Lasers
High Energy Broadly Tunable Lasers
Diode Pumped Picosecond kHz Pulsed Nd:YAG Lasers
Diode Pumped High Energy Picosecond Nd:YAG Lasers
Flash-Lamp Pumped Picosecond Nd:YAG Lasers
High Power Industrial Picosecond Lasers
Compact Q-switched DPSS Lasers
High Energy Q-switched DPSS Nd:YAG Lasers
Compact Flash-lamp Pumped Q-switched Nd:YAG Lasers
Compact Fiber Seeders for Femtosecond Lasers
Compact Fiber Seeders for Picosecond Lasers
High Repetition Rate Tunable Wavelength Femtosecond OPCPA Systems
High Energy Femtosecond OPCPA Systems
Multi TW Few cycle OPCPA systems
High Energy Flash Lamp Pumped Picosecond Amplifiers
High Repetition Rate Diode Pumped Picosecond Amplifiers
Custom Picosecond Amplifiers
Single Mode (SLM) High Energy Q-switched Nd:YAG Lasers
Multimode (MM) High Energy Q-switched Nd:YAG Lasers
High Power Diode Pumped Nanosecond Amplifier Systems
Temporally Shaped (AWG) High Energy Nd:YAG Lasers
High Energy, Mobile, Tunable Wavelength Laser Source for Photoacoustic Imaging
High Output Power DPSS Tunable Laser for Photoacoustic Imaging
High Energy Table-Top Tunable Wavelength Lasers for Photoacoustic Imaging
Broadband Femtosecond Sum Frequency Generation (SFG) Spectrometer
Picosecond Scanning Sum Frequency Generation (SFG) Vibrational Spectrometer
Ultra-stable and high power laser diode drivers with internal TEC controller option
High repetition rate and high voltage Pockels cell drivers with energy-efficient power supplies
Digital delay generator
Thermocontroller with oven for nonlinear crystals
Nonlinear crystal oven with built-in thermocontroller
The femtosecond laser micromachining technique has brought glass processing to the next level
Complex shapes and features, like black/white marking and coloring can be performed without the need for chemical additives
Short pulse durations of fs lasers offer a solution for low heat conductivity of polymers, enabling the precise machining and preserving process quality.
Femtosecond lasers ensure the highest quality and accuracy for processing of different kind of materials.
Exploring interaction of light with matter. Detailed information about the composition, structure, dynamics, and environment of molecules and atoms can be obtained.
A high-contrast in vivo imaging technique for pre-clinical and clinical applications.
Plasma physics, atomic & high energy physics, materials science and biology.
Narrow Linewidth 10 kHz Tunable Laser
NT262 delivers hands free, no gap tuning from 192 to 2600 nm at 10 kHz rate from the one box. Featuring powerfull up to 0.7 W output while maintaining < 3 cm‑1 linewidth laser offers serious benefits in such demanding applications, like the calibration of detectors and spectroradiometers, metrology or gas spectroscopy.
NT262 is a unique narrow linewidth 10 kHz OPO. Pioneering patented technology enables powerful up to 0.7 W output in 192 – 2600 nm wavelengths range while maintaining < 3 cm‑1 (typically < 2 cm‑1 at most wavelengths) linewidth that is highly beneficial for traditional and specific applications requiring narrow linewidth and high spectral brightness pulses. Thus, besides the most of popular applications, like fluorescence and pump-probe, the system is also suitable for such demanding applications where high resolution and narrow linewidth are required, like the calibration of detectors and spectroradiometers, metrology or gas spectroscopy. High 10 kHz repetition rate and hands-free wavelength tuning makes easy and fast experiment data collection as never before. The system is highly stable, ensures excellent short and long-term energy and power stability, has smaller M2 value if compared with traditional OPO systems.
In addition to superior specifications, the laser is highly reliable due to low generation threshold and easy running regime. The system fits into monolithic, rugged housing that ensure high reliability and low costs of maintenance.
| Model | NT262 |
|---|---|
| OPO specifications 1) | |
| Wavelength range 2) | |
| Signal | 405 – 710 nm |
| Idler | 710 – 2600 nm |
| SH/SF generator (optional) | 210 – 405 nm |
| DUV generator (optional) | 192 – 210 nm |
| Output pulse energy/ average power | |
| OPO 3) | 70 µJ / 700 mW |
| SH/SF generator (optional) 4) | 6 µJ / 60 mW |
| DUV generator (optional) 5) | |
| Minimal tuning step | |
| Signal (405 – 710 nm) | 1 cm‑1 |
| Idler (710 – 2600 nm) | 1 cm‑1 |
| SH/SF (210 – 405 nm) | 2 cm‑1 |
| DUV (192 – 210 nm) | 2 cm‑1 |
| Pulse and beam parameters | |
| Pulse duration 6) | ~7 ns |
| Linewidth 7) | < 3 cm‑1 |
| Typical beam diameter 8) | 4.5 mm × 2.5 mm |
| Beam pointing stability 9) | ≤ 50 μrad RMS |
| Polarization | |
| Signal beam | horizontal |
| Idler beam | horizontal |
| SH/SF | horizontal |
| DUV | vertical |
| Pump laser 10) | |
| Pump wavelength | 355 nm |
| Typical pump pulse energy | 0.3 mJ |
| Pulse duration | ~7 ns |
| Beam quality | Near Gaussian in near and far fields |
| Beam divergence | < 1.5 mrad |
| Pulse energy stability (StdDev) | < 2.5 % |
| Pulse repetition rate | 10 kHz |
| Nominal lifetime for pump diodes | 20 000 hours |
| Typical warm-up time 11) | 15 min |
| Physical characteristics | |
| Laser head size (W × L × H) | 400 × 790 × 166 ± 3 mm |
| Power supply unit size (W × L × H) | 553 × 510 × 529 ±3 mm |
| Umbilical length | 3 m |
| Operating requirements | |
| Cooling 11) | Built-in chiller |
| Clean air purge | Built-in |
| Room temperature | 18 – 27 °C |
| Ambient temperature stability | ±2 ºC |
| Relative humidity | 20 – 80 % (non-condensing) |
| Power requirements | 100 – 240 V AC, single phase, 50/60 Hz |
| Power consumption | < 1 kW |
| Cleanliness of the room | not worse than ISO Class 9 |
| Model | NT262 |
|---|
Note: The laser and auxiliary units must be settled in such a place void of dust and aerosols. It is advisable to operate the laser in air conditioned room, provided that the laser is placed at a distance from air conditioning outlets. The laser should be positioned on a solid and flat worktable in horizontal position. Access from one side should be ensured. Intensive sources of vibration should be avoided near the laboratory (ex. railway station or similar).
| Option | Features |
|---|---|
| -SH/SF | Tuning range extension in 210 – 405 nm range by combining second harmonics and sum-frequency generator outputs for maximum possible pulse energy |
| -DUV | Deep UV option for 192 – 210 nm range output |
| -FC | Fiber coupled output in 350 – 2000 nm range |
| -ATTN | Attenuator output in 210 – 2600 nm range |
| -SCU | Spectral filtering accessory for improved spectral purity of pulses |
