Femtosecond Fiber Laser
Advanced Features and Benefits
- Compact: only 1/10 of the size of Ti:Sapphire lasers
- Laser Output in less than 60 seconds after turn-on
- Low Amplitude and Phase Noise
- Adjustable Chirp Control (-60000 ...0 fs2)
- Modulation Input (enable/disable): Fast Amplitude Modulation, rise time <1µs
- Radio Frequency Output for Trigger/Synchronization: SMA Connector
- Excellent Beam Quality (TEM 00, M²<1.2) and Beam Stability
- Air Cooled - no Chiller
- Low Power Consumption
- Quality “Made in Germany”
|YLMO-930 VARIANT 1
||YLMO-930 VARIANT 2
|Central Wavelength||930 nm ± 10 nm||930 nm ± 10 nm|
|Average Power||>0.5 W||>1 W (@ 100 MHz)|
|Pulse Energy||>10 nJ||>10 nJ|
|Bandwidth||>10 nm||>10 nm|
|Pulse Width||<140 fs, (typ. <120 fs)||<140 fs, (typ. <120 fs)|
|Repetition Rate*||50 MHz ± 1 MHz *||100 MHz ± 1 MHz or 80 MHz ±1 MHz*|
|Polarization||linear, (>50:1)||linear, (>50:1)|
|Beam Diameter||2 mm ± 0.5 mm||2 mm ± 0.5 mm|
|Beam Height||56 mm||56 mm|
*Other repetition rates on request
Menlo Systems’ femtosecond fiber laser integrates the latest developments in fiber technology and incorporates these enhancements into an easy-to-use solution.
Our patented figure 9® technology delivers reliable and consistent mode-locking, which is ideally suited to ensure long-term stable operation in demanding environments. The YLMO-930 with its PM-fiber design guarantees excellent stability and consistent long-term performance. The YLMO-930 is engineered with life science applications in mind. The pulses can be pre-chirped to attain their shortest width within their intended target sample.
The installation of the laser system is as easy as it gets, taking only a few minutes. For ease of operation, the laser is switched on by the push of a single button. The maintenance free operation translates to a worry-free device that enables our customers to focus their time and resources on their actual application.
Maximize your signal - avoid heating
Get higher multi-photon signals with the YLMO-930 using higher pulse energy levels. The repetition rate of 50 MHz allows to have higher multi-photon signals when using low average powers. Highest signal - minimal heating of the sample.
Graph shows 2-Photon Excitation Fluorescence Signal (2PEF) as function of laser repetition rate for a given constant average power
Two-photon microscopy images using the YLMO-930 for fluorescence excitation. a) In-vivo image of drosophila larvae (GFP), b) Colon tissue.
Images courtesy of Hervé Rigneault, Institut Fresnel