Reliable Sheet Metal Company Solutions
Hongsinn-884
As a trusted sheet metal company, we offer comprehensive fabrication solutions, ensuring efficiency and top-notch results for every project.
Delivery
FOB
minimum order
1 piece
Supply Ability
5000piece / Week
Country of Origin
Shenzhen
Stock Time
7~15Day
Quantity:
US $0.59 - US $10.68 / piece
As a trusted sheet metal company, we offer comprehensive fabrication solutions, ensuring efficiency and top-notch results for every project.
The convergence of laser cutting sheet metal technology, professional sheet metal company operations, and advanced laser cutter sheet metal equipment has fundamentally transformed modern manufacturing.
Material | Aluminum, stainless steel, copper, brass, galvinized etc. |
Size | Customized |
Surface treatment | Powder coating, electroplating, oxide,anodization |
Technics | laser cut, bend, weld, stamp |
Certification | ISO9001:2015 |
OEM | Accept |
Drawing Format | 3D/CAD/Dwg/IGS/STEP |
Color | Customized |
Application | Appliance, Auto, Building, Capital equipment, Energy, Instrumentation, Medical device, Telecommunications |
What is sheet metal laser cutting?
Sheet metal laser cutting is a method of cutting materials using a highly concentrated coherent laser beam. This beam is guided by collimation and focusing devices to ensure sufficient focal intensity to vaporize or melt most metals. In this way, the target material can be precisely cut, yielding a net shape that matches the design intent.
Laser cutting is performed by moving the optical head or, in some cases, the target material, typically along one or two axes. This high-intensity energy allows the cutting point to move flexibly across the worktable, ensuring consistent precision and cutting results across the entire sheet metal volume at the edges.
Advantages of Sheet Metal Laser Cutting
Sheet metal laser cutting offers several significant advantages:
Zero Deformation Cutting: Since no force is applied, laser cutting does not cause shearing or pressure deformation of the material.
Low Heat Effect: Compared to other thermal processing methods such as plasma cutting and gas torches, laser cutting generates less heat, reducing deformation caused by localized heating.
No Cutting Degradation: Cutting quality remains consistent throughout, with the last inch matching the first inch, while maintaining good optical order.
Minimum Material Consumption: Extremely narrow cut widths result in less material waste compared to grinding or flame cutting.
Sharp Turns and Smooth Radius: Lasers can turn in a single location or follow complex curvatures, providing greater design flexibility.
Additional Functionality: Increasing part complexity has minimal impact on processing time, expanding design possibilities.
Rapid Processing: Laser cutting can be completed quickly, resulting in high operational efficiency.
Discontinuous Cutting: Cutting can be started and stopped at any time, allowing for flexible handling of different features without interfering with other processing.
Subcontracting Service Expansion: By subcontracting laser cutting services, companies can obtain high-quality service without significant capital investment or in-house skill development.
Laser Types for Sheet Metal Cutting
1. Fiber Lasers
Fiber lasers are an increasingly popular type of laser, offering a variety of frequencies with simple adjustments. Their power levels have increased rapidly since the 1990s, from a few milliwatts to several kilowatts. Fiber lasers use rare-earth dopants (such as trace impurities in silicate or phosphate glass) as the gain medium, with the diode laser pumping light into the fiber. The dopants release more photons in response to the photons, which are then trapped by the fiber to form a coherent beam. Although fiber lasers are relatively expensive to manufacture, they offer higher power efficiency and a longer lifespan compared to established CO2 laser technology.
2. Carbon Dioxide Lasers
Carbon dioxide lasers were the first commercially available laser cutting technology, although invented at the same time as other core laser technologies. They offer higher power and superior cutting speeds, and their construction is relatively simple. However, carbon dioxide lasers have lower power efficiency and a relatively short lifespan, but their low manufacturing cost and high efficiency complicate the selection process.
CO2 lasers operate through a gas tube discharge (including AC, DC, or RF), filled with carbon dioxide and small amounts of nitrogen and hydrogen. The electric arc excites nitrogen molecules and transfers their energy to carbon dioxide molecules, emitting high-energy infrared photons and producing the laser effect. This makes carbon dioxide lasers widely used in cutting and machining.
Carbon dioxide lasers were the first commercially available laser cutting technology, although invented at the same time as other core laser technologies. They offer higher power and superior cutting speeds, and their construction is relatively simple. However, carbon dioxide lasers have lower power efficiency and a relatively short lifespan, but their low manufacturing cost and high efficiency complicate the selection process.
CO2 lasers operate through a gas tube discharge (including AC, DC, or RF), filled with carbon dioxide and small amounts of nitrogen and hydrogen. The electric arc excites nitrogen molecules and transfers their energy to carbon dioxide molecules, emitting high-energy infrared photons and producing the laser effect. This makes carbon dioxide lasers widely used in cutting and machining.
3. Crystal Lasers
Crystal lasers, often called diode-pumped solid-state lasers or laser diodes, are a relatively new laser technology. They are semiconductor lasers that emit laser light by doping with semiconductors within a specific frequency band. Despite their relatively recent development, crystal lasers have relatively limited power, with the highest power devices typically only reaching a few hundred watts.
Crystal lasers are the core of fiber lasers, serving as the light source for fiber amplification. Furthermore, their application in low-power laser cutting machines is increasing, providing flexible solutions to adapt to different cutting needs.
Crystal lasers, often called diode-pumped solid-state lasers or laser diodes, are a relatively new laser technology. They are semiconductor lasers that emit laser light by doping with semiconductors within a specific frequency band. Despite their relatively recent development, crystal lasers have relatively limited power, with the highest power devices typically only reaching a few hundred watts.
Crystal lasers are the core of fiber lasers, serving as the light source for fiber amplification. Furthermore, their application in low-power laser cutting machines is increasing, providing flexible solutions to adapt to different cutting needs.





























