A fiber laser's operation can reveal some subtleties that are not obvious. The fiber laser beam has a much higher power density than the CO2 laser beam due to its smaller beam diameter. This not only allows the fiber laser to cut faster but also allows it to pierce quicker. The fiber is able to cut complex shapes and leave sharp edges because of the smaller beam size. Imagine cutting out a company logo from a tube, with letters spaced at 0.035 inches. A fiber can do that while a CO2 laser cannot.
StarCut Tube L 600 may be purchased with either a fiber, USP or both lasers. StarCut Tube SL Compact Model has the smallest footprint.
Micrometric Ltd uses the Coherent StarCut Tub laser cutting machine to provide speed and precision in medical and aerospace production.
StarFiber Series is a compact fiber laser series that can be combined with optional focusing head for laser cutting or welding. SmartWeld (tm) technology can be added for fine and wide welding.
Imagine having to place a through-hole centered on a tube. It has to be centered to the actual dimension, not just one face of the tube. If the tube is bowed, that’s going to make things more difficult. That’s the life of tube fabricating.
Fiber lasers are capable of cutting thin materials with high speeds. Fiber lasers are very efficient and low in power consumption, but require very little maintenance. Laser cutting technology is able to cut steel, stainless and aluminum as well as nonferrous metals such copper and brass.
Parts can be held with automatic tabbering (in FabCreator), as well as a set of jaws at the drive chuck, and the idler-chuck.
Medical device manufacturing is possible with precision and maximum uptime using Coherent Laser Systems for cutting, welding drilling, texturizing and marking.
Micrometric Ltd's versatile Coherent StarCut tube laser cutting machine delivers speed and precision to medical and aerospace products.
Due to the high power needed to create a CO2 Laser, it is less efficient than a fiber-laser. Also, the large chillers that are required to make CO2 lasers work require more power. You are using less power due to the fiber laser's wall plug efficiency exceeding 40 percent. This means that you also use less of your floor space in high-demand areas.
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.
Monaco high power femtosecond lasers provide excellent edge quality for micromachining. They also offer improvements in scientific application like three-photon microscopicscopy.
The TruLaser Tube 5000 fiber is capable of reaching record speeds. It makes full use of solid-state Lasers' strengths. This results in shorter processing times for the user and a wider range of parts.
Our system solutions have the most flexible selection available for small and large-scale production. They are available in diameters of 10 to 324 mm and lengths of pipe and profiles up to 12.5 m.
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.
What is the operation of a CO2 Laser? 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.
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.