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MCL-1064: Microchip laser 1064 nm The microchip laser module delivers short single mode pulses on demand at a wavelength of 1064 nm. The pulse repetition rate is software controlled
and can be set between single shot and 500 kHz. The nominal pulse duration is 150 ps.
The MCL-1064-150 contains a microchip with pump diode and a software controlled electronic module. The microchip is based on
a Nd:YVO4 laser crystal with a semiconductor saturable output coupler.
A fiber coupled version of the microchip laser MCL-1064-150-f is also available. For the fiber coupled microchip laser the output is realized by a FC/APC terminated polarisation maintaining single mode fiber.
MCL-1064-150 module description:

Microchip Laser MCL-1064-150
typical pulse

Fiber coupled Microchip Laser MCL-1064-150-f
Technical data:
• Microchip Laser MCL-1064-150 parameters
Laser Parameters
| Emission wavelength: | 1064.0 nm ± 0.2 nm |
| Beam divergence: | 40 mrad |
| Beam waist diameter: | 32 µm |
| M2: | 1.3 |
| Pulse energy: | > 12.5 nJ |
| Pulse duration: | 150 ps ± 30 ps |
| Repetition rate: | single shot – 500 kHz |
| Dimensions: | 164 mm x 105 mm x 51 mm |
| Weight: | 900 g |
| Power supply: | 12 V = / 3 A |
• Data sheet (pdf)
Front Panel

Control Software
The provided control software can be used to:Rear Panel

• Fiber Coupled Microchip Laser MCL-1064-150-f parameters
Laser Parameters
| Emission wavelength: | 1064.0 nm ± 0.2 nm |
| Pulse energy: | > 7.5 nJ |
| Pulse duration: | 150 ps ± 30 ps |
| Repetition rate: | single shot – 500 kHz |
| Connector: | FC/APC |
| Mode field diameter: | 6.6 µm ± 0.5 µm @ 980nm |
| Fiber type: | Fujikura SM98-PS-U25 |
| Dimensions: | 180 mm x 105 mm x 51 mm |
| Weight: | 920 g |
| Power supply: | 12 V = / 3 A |
• Data sheet (pdf)
Front Panel

Control Software
The provided control software can be used to:Rear Panel with Fiber port


This work has been supported by the the Federal Ministry of Education and Research.
Funding initiative „Effiziente Hochleistungs-Laserstrahlquellen“ (EffiLAS)
Joint research project "IMPULS" grant No. 13N13963