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Skylark 780 nm CW DPSS laserNX.webp

SKYLARK 780 NX

SINGLE FREQUENCY CW DPSS NIR LASER

780 nm single frequency diode-pumped solid-state laser designed for precision applications requiring ultra-low ASE noise and ultra-stable output.

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Ultra-stable 780 nm lasers

The Skylark 780 NX laser offers DPSS CW single frequency operation, delivering up to 400 mW of ultra-stable intensity and wavelength for systems requiring precise measurement and control of rubidium transitions. The central wavelength at 780.24 nm targets Rb 85 and Rb 87.

Power efficiency

Up to 400 mW efficient output power at 780 nm for rubidium transitions.

Ultra-stable output

Consistent output power and wavelength with minimal drift over long laser operation and lifetime.

Ultra-narrow linewidth

Precise spectral resolution for fine-tuned interaction and high resolution measurements.

Inherently low ASE

Ultra-low ASE noise delivers a clean spectral profile and sharp, stable resonance.

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High power, ultra-stable light designed for rubidium transitions

Skylark NX lasers power applications with ultra-stable output, inherently low ASE noise, coherence, and precision performance.

Designed for integration into existing setups, the Skylark 780 NX laser is packaged with versatile software control - making it suitable for cutting-edge quantum sensing and research applications.

Manufacturing

Interferometry, maskless lithography, microfabrication, thin film coating.

Inspection

Semiconductor inspection, Flow cytometry, Photoluminescence (PL), speckle interferometry.

Analytics

Raman spectroscopy, Brillouin microscopy, doppler cooling, optical manipulation, rubidium D2 transition, ⁸⁵Rb, ⁸⁷Rb, cold atom trapping, atomic spectroscopy, magnetometry, atom interferometry, Bose-Einstein Condensates (BEC formation), magneto-optical traps.

Skylark 780 NX laser specifications finely tailored to your application requirements

Key specifications

WAVELENGTH

780 nm

OUTPUT POWER (fixed value within range)

up to 400 mW

SPECTRAL BANDWIDTH

≤ 0.3 MHz

SPATIAL MODE

TEM₀₀

OPERATIONAL MODE

CW, intracavity-locked SLM

Laser performance

SPECTRAL STABILITY (over 8 hours)

± 0.2 pm

OUTPUT POWER STABILITY (over 8 hours)

≤ 2.0 % Peak to Peak

OUTPUT POWER NOISE (10 Hz - 10 MHz)

≤ 0.3 % RMS

ASE NOISE

< – 80 dB

WARM-UP TIME

5 - 30 mins

POWER CONSUMPTION (typical)

< 50 W

Beam characteristics

BEAM HEIGHT

54.2 mm

BEAM DIAMETER AT OUTPUT APERTURE

0.8 - 1.2 mm

BEAM DIVERGENCE

≤ 1.0 mrad, diffraction limited

POLARISATION RATIO

≥ 100:1, vertical

BEAM POINTING STABILITY

≤ 5 μrad/°C

COHERENCE LENGTH

> 100 m

Laser system dimensions

LASER HEAD (L x W)

257 x 150 mm

CONTROLLER (L x W x H)

150 x 176 x 61 mm

Environmental conditions

AMBIENT TEMPERATURE RANGE

18 - 30 °C

LASER INTERFACE STABILITY

± 1.5 °C

STORAGE

0 - 50 °C

HUMIDITY

5 - 95 %, non-condensing

Options and accessories

  • Enhanced intensity stability through compact, closed-loop cooling. Enables portability of the laser system without dependence on a water mains connection.

  • Compact, low-cost system cooling which is integrated into the laser platform. Intelligently controlled to maintain stable wavelength output and intensity.

  • External fiber coupling options available to achieve easier integration. Multimode fibers typically achieve > 95% efficiency, for single-mode fibers it is > 70%.

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Target rubidium transitions with low noise, ultra-stable precision at 780 nm. Get in touch to tailor a laser to your application.

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