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UltraFlux is the first compact high energy tunable wavelength femtosecond laser system which incorporates the advantages of ultrafast fiber laser, solid-state and parametric amplification technologies in less than 1 square meter footprint box.
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Description
Features
Based on the novel OPCPA (Optical Parametric Chirped Pulse Amplification) technology - simple and cost-efficient operation
Hands free wavelength tuning from 680 to 960 nm
30 fs pulse duration (10 fs is available)
1 kHz repetition rate
0.35 mJ pulse energy
Excellent pulse stability: < 1 %
Fiber laser based front-end (patent application No. EP2924500)
Small footprint
Compact picosecond pump laser
Applications
Femtosecond pump-probe spectroscopy
Nonlinear spectroscopy
High harmonic generation
Your application is welcome
Options
Amplified and compressed supercontinuum output (1 μJ, 10 fs, 680 – 960 nm)
CEP stabilization
Idler output: 1200 – 2200 nm
Second harmonics: 345-475 nm
Third harmonics: 235-315 nm
UltraFlux is the first compact high energy tunable wavelength femtosecond laser system which incorporates the advantages of ultrafast fiber laser, solid-state and parametric amplification technologies in less than 1 square meter footprint box. Patent pending (application No. EP2924500) OPCPA front end technology uses the same picosecond fiber laser for seeding both picosecond DPSS pump laser and femtosecond parametric amplifier by spectrally broadened output. This approach greatly simplifies the system – excludes femtosecond regenerative amplifier and eliminates the need of pump and seed pulse synchronization. In addition to that, contrast of the output pulses in picosecond to nanosecond time scale is potentially increased.
System generates 30 fs pulses, which can be automatically tuned in 680-960 nm wavelength range. Less than 10 fs pulses are obtained in a few-cycle operating regime. Up to 0.35 mJ output pulse energy with better than 1% pulse-to-pulse stability at 1 kHz repetition rate is achieved by using a state of the art OPCPA technology.
By incorporating parametric amplifier technology together with a novel ultrafast fiber laser helped to create and bring to the market a new tool for femtosecond pump-probe, nonlinear spectroscopy, emerging high harmonic generation experiments and other femtosecond and nonlinear spectroscopy applications. With this laser ultrafast science breakthrough is closer to any photonics lab than ever before.
Main specifications
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