Find the exact solution for your laser fabrication requirements while maintaining process quality and efficiency to both metal and other materials.
Sheet laser cutting offers many possibilities and complexity in material loading and unloading automation. Tube laser cutting systems have only recently been available with tube storage systems that allow for automatic handling of tubes and sectionbars and unmanned production changes.
StarCut Tube® SL laser cutting system provides the highest precision, reliability and performance for complex medical devices like stents, aortic valves replacements or hypotubes.
The CO2 solution to large-diameter tubes and profiles Tubes up O14" / 24", (355 mm, 610 mm).3D cutting modeCO2 laser
PowerLine C CO2 laser systems use CO2 lasers to precisely drill, cut, scribing and mark many nonmetals, such as glass, or organic materials.
Secondary operations are eliminated: A tube Laser can cut a length of piece, add holes and cutout other designs in one operation. It also eliminates the need for additional actions like manual material removal. For more complex fabrications, you can maintain tight tolerances. Parts can easily be manufactured from one continuous raw material. Tube laser aluminum, stainless-steel and carbon can be made.
Any job shop will have to offer a variety of options. This is also true for tube laser operators. It is not uncommon to see parts of different sizes coming from the same tube. It must be capable of loading laser-cut parts up to 2 in. The machine must be able to unload laser-cut parts as small as 2 in. and as long at 15 ft. one after another. It must also be capable of unloading those parts without damaging the rest. This is especially important for soft metals such aluminum.
The laser cutting system StarCut Tube SL provides highest accuracy, superior reliability, and high performance when cutting complex medical devices such as stents, aortic valve replacements, or hypotubes.
The CO2 resonance is larger and requires more power as electricity is used to heat a mixture of gases to produce the laser beam. Mirrors increase the intensity of the light and prepare it to leave the resonator. After leaving the resonator the beam must travel through a path made up of several cooled lenses until it reaches its destination. This travel results in a loss in power and quality for the laser beam.
Tube laser cutting offers the best solution for wide-ranging work. Tubes upto O 9.45 inches (240 mm).3D cutting modeCO2 and fiber laser
The fully-automatic solution for maximum productivity, fast production changes and high quality. Tube O Range min. 0.47" (12 mm) - max. 6" (152.4 mm)3D cutting modeFiber laser
The wavelength of fiber lasers is 1.06 microns. This is 10% less than the wavelength of a CO2 laser beam. The fiber laser emits a beam with a shorter wavelength that is more easily absorbed and reflected by reflective materials than a CO2 laser. Fiber laser cutting machines are able to cut brass, copper and other reflective materials. Be aware that the CO2 laser beam can damage not only the machine's lens but also the entire beam path. This risk is eliminated by using a fiber-optic cables for the beam path.
Save time and reduce number of components Metal structures and tubular frames can be made faster and more precisely. Completion of your part is possible in just one programming step, one machining step, or on one system.
Of course, the fiber laser doesn’t need as much attention in terms of maintenance. It doesn’t require mirror cleaning and bellows checks that a CO2 laser cutting machine needs. As long as it gets clean chiller water for cooling and the air filters are routinely replaced, the fiber laser itself is free of preventive maintenance.
A fiber laser cutting machine generates a laser beam using active optical fibers and transmits it to the machine's cutting head via a transport fiber. This extremely hot laser is condensed into a narrow beam and is used to cut through various metal thicknesses.
Laser cutting pipe is the best way to achieve repeatable and precise cutting in applications where the precision of the cut itself is important.
Modern CO2 machines typically generate the laser beam in a sealed glass tube filled with gas, typically carbon dioxide. A high voltage flows through the tube, interacting with the gas particles and increasing their energy, resulting in the production of light.