FYLA LASER

The FYLA SCH, named 2022 Prism Award finalist, is a revolutionary laser for multiphoton and SHG microscopy. With a Ultra broadband spectrum (900–1200 nm), multiple fluorophores can be imaged simultaneously without the need of wavelength tuning and hence in a much simpler and faster fashion. Delivering the shortest pulses on the sample plane (of the range of 15–20 fs), FYLA´s SCH offers extraordinary peak powers (>200 kW) and the highest levels of brightness at reduced average power, improving photobleaching and photodamage to the sample.

This all-fiber fiber laser is an unparalleled illumination source for multiphoton and SHG microscopy, massively simplifying and reducing the cost of the optical set-up while improving brightness and ensuring excellent image resolution.

At FYLA we develop ultrafast fiber lasers with pulse durations in the range of nanoseconds, picoseconds, and femtoseconds. Our lasers are used in a lot of applications, from microscopy (as two-photon microscopy, SHG, single molecule fluorescence, OCT) up to characterization of the semiconductors, providing a greater level of robustness, higher lifetimes, and a cost-effective solution.

The FYLA SCT is a highly stable picosecond supercontinuum fiber laser delivering over 1 W of average power across the 450–2300–nm spectral range and more than 30 mW in the visible range. It is a very versatile illumination source with a broadband spectrum that can be used for multiple applications including absorption/transmission measurements for material characterization, VIS, NIR and IR spectroscopy, single molecule spectroscopy and fluorescence excitation.

The FYLA SCT is a highly stable picosecond supercontinuum fiber laser delivering over 1 W of average power across the 450–2300–nm spectral range and more than 30 mW in the visible range. It is a very versatile illumination source with a broadband spectrum that can be used for multiple applications including absorption/transmission measurements for material characterization, VIS, NIR and IR spectroscopy, single molecule spectroscopy and fluorescence excitation.

At FYLA we develop ultrafast fiber lasers with pulse durations in the range of picosecond and femtosecond. Our lasers are used in a lot of applications, from microscopy (as two-photon microscopy, SHG, single molecule fluorescence, OCT) up to characterization of the semiconductors, providing a greater level of robustness, higher lifetimes, and a cost-effective solution.

The FYLA SCT is a pulsed high power supercontinuum fiber laser delivering over 1 W of average power across the 450–2300 nm spectral range and more than 30 mW in the visible range. It is a very versatile illumination source with a broadband spectrum that can be used for multiple applications including absorption/transmission measurements for material characterization, VIS, NIR and IR spectroscopy, single molecule spectroscopy and fluorescence excitation.

The FYLA SCT is a highly stable picosecond supercontinuum fiber laser delivering over 1 W of average power across the 450–2300 nm spectral range and more than 30 mW in the visible range. It is a very versatile illumination source with a broadband spectrum that can be used for multiple applications including absorption/transmission measurements for material characterization, VIS, NIR and IR spectroscopy, single molecule spectroscopy and fluorescence excitation.

A robust ultra-fast fiber laser comb with GHz range repetition rates, providing more than 1,5 W of average power. The optical spectrum is centred at 1535nm and delivers pulses shorter than 100fs.

At FYLA we develop ultrafast fiber lasers with pulse durations in the range of picosecond and femtosecond. Our lasers are used in a lot of applications, from microscopy (as two-photon microscopy, SHG, single molecule fluorescence, OCT) up to characterization of the semiconductors, providing a greater level of robustness, higher lifetimes, and a cost-effective solution.

The FYLA SCT is a highly stable picosecond supercontinuum fiber laser delivering over 1 W of average power across the 450–2300 nm spectral range and more than 30 mW in the visible range. It is a very versatile illumination source with a broadband spectrum that can be used for multiple applications including absorption/transmission measurements for material characterization, VIS, NIR and IR spectroscopy, single molecule spectroscopy and fluorescence excitation.