LASER BEAM SHAPING AND ADAPTIVE OPTICS SOLUTIONS

• High resolution wavefront sensor
• 272×200 phasepoints resolution
• Absolute accuracy – λ/100
• 400-800 nm wavelength

• High resolution wavefront sensor
• 680×504 phasepoints resolution
• Absolute accuracy – λ/100
• 400-800 nm wavelength

• For applications that requires high sampling density or a very large dynamic range
• λ/100 rms absolute accuracy or ≥ 6 nm RMS
• 30 Hz acquisition frequency

• λ/100 rms absolute accuracy over 400λ dynamic range

• λ/100 rms absolute accuracy over 600λ dynamic range.
• Full spectral range calibration over 400nm -1100 nm.

• Highest-resolution: 16,384 independent measurement points.
• Largest aperture dimension of 14.6 x 14.6 mm².

• Working wavelength range between 400 and 900 nm

• ~ λ/35 on the 1500 – 1600 nm wavelength range and true absolute measurement

• ~ λ/100 rms on the 0.9 – 1.7 µm wavelength range.
• Simultaneous and independent measurement of phase and intensity

• Working wavelength range from 4 to 45 nm. Large aperture.
• High resolution.

• Build your own adaptive optics system for your microscope and control the PSF of your optical setup

• Reliable adaptive optics solutions for ultra-high intense lasers

• Customizable adaptive optics platform offering 5 technologies of wavefront modulators (PZT, MEMS, voice coil, mechanical actuator, and SLM)

• WaveTune advanced adaptive optics control software for open and close-loop systems.

• WaveKit offers these API languages in C, Matlab and Labview to cover most of the needs.

Laser beam shaping platform designed to improve power laser processes (welding, cutting, additive manufacturing etc)

Modules designed for efficient and accurate ultrashort pulse laser beam shaping (round, square or line top-hat) or to stabilize ultrashort lasers (Mode-Cleaner)

Modules that allow different beam splitting patterns to be electronically selected, suitable for all industry standard machines.

A reflective axicon that generates a high-quality Bessel beam for ultrashort pulse laser glass machining.

TILBA-ATMO limits the influence of atmospheric turbulence by use of a passive technology for the analysis of spatial modes of the optical link.

TILBA-EMIT optimally combines several optical sources in a coherent or non-coherent manner, to increase their range and accuracy.