Picosecond Integrated Solid-state Lasers

Picosecond Integrated Laser Machine

Amber NX series lasers feature an all-in-one design scheme with a compact volume, as well as an upgraded control system that operates more stably and provides multiple control functions. They use a picosecond fiber seed source and free space solid state amplifier to achieve high power picosecond laser output; fiber seed sources offer more stable performance with flexible output parameters when compared with traditional solid-state picosecond lasers, while solid state amplifiers ensure peak power laser output.

The Amber series lasers conform to rigorous material processing quality standards, with parameters such as Amber Whole Series Laser Width (<15ps for most models and <8ps for some), M^2 < 1.3, and Roundness > 90%. These parameters guarantee high-quality laser output. Currently, the Amber series lasers have been successfully used in a variety of applications including LED wafer cutting, ceramic cutting, solar energy battery sheet cutting, and glass chamfering.

Technical data

Model	Amber NX IR	Amber NX GR	Amber NX UV
Wavelength	1064nm	532nm	355nm
Power Rate	10-200W	5-70W	5-60W
Single Pulse Power	Max 2mJ	Max 150μJ	Max 100μJ
Pulse Frequency Rate	1Hz~2000KHz
Pulse Width	<15ps
Spot Mode	TEM00(M2<1.3)
Beam Diameter	(1.0~2.0)±0.2mm
Power Rate Stability	<2% RMS over 8 hours
Pulse-to-Pulse Stability	<3% RMS over 10 minutes
Spot Stability	<50μrad/ ℃
Beam Divergence	<2mrad(full angle)
Spot Roundness	>90%
Control Mode	Ethernet, Gate, Trigger
Cooling Method	Water cooling
Polarization Direction	Horizontal	Vertical	Horizontal
Polarization Ratio	>100:1
Ambient Temperature	15℃~35℃
Relative Humidity	10%～80%(non-condensing)
Preheat Timing	<30 minutes
Operating Voltage	90v～260V
Overall dimensions	780mm354mm134mm

Amber Series have obvious advantages

1. Easy operation；2. More perfect functions；3. Better stability.

With its user-friendly software control interface and intuitive design, users will experience more humanized operation. Utilizing this software we can monitor the status of laser power rate constantly; once any abnormal states arise during laser operation, these will be recorded and saved for later diagnosis and tracking purposes. Furthermore, sufficient parameters control and modify windows allow flexible adaptation according to process demands.