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.
Gulf States Saw & Machinery Co., Inc.’s team of experts will work with your to create a program specifically tailored to your needs. We will assess how your part is produced currently, as well as its intended application and end use. Together, we will identify and meet your specific needs.
Monaco high power femtosecond lasers provide excellent edge quality for micromachining. They also offer improvements in scientific application like three-photon microscopicscopy.
Shape laser technology allows for a complete customization and cut-to-length capabilities in just one step. Finished or semi-finished parts are produced from raw material.
A CO2 laser is more efficient than a fiber one because it requires less power to create. This means that large chillers for CO2 lasers will require more overall power. With a wall plug efficiency greater than 40%, the fiber laser resonance uses less power and takes up less space.
Tube extensions are available for loading tube stock to the maximum length of 80", or 6'8". The maximum part size is 52".
You can find the right technology to meet your needs. You have the option of either CO2 laser or fiber laser cutting systems depending on what materials you are working with and how much productivity and quality you desire.
This fully-automatic solution guarantees maximum productivity as well as rapid production changes. Tube O Range min. 0.47" (12 mm) - max. 6" (152.4 mm)3D cutting modeFiber laser
Even for XXL tubing, it is built for maximum productivity. This machine has a solid-state laser that can be used in a variety of ways to produce tubes and profiles from varying materials and wall thicknesses.
You can take a look at our StarCut Tube production area and lab to learn more about these multi-axis CNC machines for tubes, flat materials and medical devices like catheter shafts and hypotubes.
The application of processed tubes and profiles is manifold. Whether in the automotive industry, furniture design, architecture, petrochemical industry or commercial vehicle construction. In many industries, the laser-assisted processing of tubes and profiles offers an almost unlimited manufacturing spectrum for components and unique design possibilities.
You should remember that there are no perfect tubes. They have bows. They may protrude from the interior as well as the exterior of the tube. It is difficult to process this material in a consistent and rapid manner when there are such inconsistencies among products.
Variety is the reality of any job shop, and the same goes for those that operate a tube laser. It’s not unusual to see parts of various sizes come from one tube. The machine must be able to unload laser-cut parts that may be as small as 2 in. and as long as 15 ft., one right after the other. It also must be able to unload those parts without damaging them, which can be a challenge with softer metals such as aluminum.
High cutting performance is a hallmark of CO2 lasers. They are most useful in medium-to-high material thicknesses. Laser beam cutting edges are low-scoring and throughburr-free. The laser beam can also be used to cut additional parts without the need for rework.
Laser tube cutting is a method and technique for cutting tubes, structural shapes, or channels. These items will be cut to the required length during the process. It can also make holes or designs in tubing. It is a precise cutting method.
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.