Ultrafast Fiber Lasers

 Femtosecond and picosecond lasers

Innovative mode locking technology

MPBC offers solutions for compact ultrafast lasers operating in femtosecond or picosecond pulsed modes.

Our Ultrafast Fiber Lasers are designed for a wide range of applications, including medical research, semiconductor inspection, micromachining, optical microscopy, neuroscience and spectroscopy.

These lasers provide outstanding performance, offering linearly polarized, near-transform-limited pulses with excellent beam quality. They are compact, reliable, and require low maintenance, available either as seeders for high-power laser systems or complete laser systems.

Our Ultrafast Fiber Lasers come with a wide range of repetition rates, wavelengths, and output powers, making them suitable for a variety of advanced applications.

Femtosecond Fiber Lasers

1 W
2 W
100 fs
200 fs
300 fs
400 fs
500 fs
600 fs
700 fs
800 fs
AFML-2F
Rep. Rate: 10 to 80 MHz
Wavelength: 1550-1570 nm
AFML-2CF
Rep. Rate: 10 to 25 MHz
Wavelength: 1040 nm
MLF-2CF
Rep. Rate: 80 MHz
Wavelength: 920,1030-1080, 1178 nm
AFML-HF
Rep. Rate: 10 to 25 MHz
Wavelength: 1030 nm

Picosecond Fiber Lasers

10 mW
20 mW
30 mW
40 mW
50 mW
60 mW
> 1 W
5 ps
10 ps
15 ps
20 ps
25 ps
30 ps
35 ps
40 ps
45 ps
50 ps
55 ps
60 ps
MLFL-EP
Rep. Rate: 30 to 100 MHz
Wavelength: 1020-1080 nm
AFML-HP
Rep. Rate: 10 to 25 MHz
Wavelength: 1030 nm
VMLFL-2P
Rep. Rate: 30 to 100 MHz
Wavelength: 515 or 532 nm
MLFL-HP
Rep. Rate: 30 to 100 MHz
Wavelength: 1020-1080 nm

Ultrafast Lasers

Femtosecond Fiber Lasers

Compact, high-reliability lasers with a diverse range of repetition rates, wavelengths, and output powers

Picosecond Fiber Lasers

Linearly polarized lasers with a wide range of wavelengths, pulse durations, repetition rates, and output powers

How our customers are using our Lasers

High-Power Mode-Locked Femtosecond Laser for Calcium Imaging

Organization: McGill University

MPBC's high-power Mode Locked 920-nm Femtosecond Fiber Laser is part of the microscope platform in the Research Lab at McGill University's Life Sciences Complex. There, Dr. Arjun Krishnaswamy and his team explore their interests in how the brain becomes wired, gathering data as to how the retina and its circuits work and how they analyze the visual scene.
Know More
Testimonial Image