How Lasers Work
A fast, precise and highly repeatable method.
Laser cutting is a thermal cutting process used in manufacturing to slice through metal with speed and precision. It works by concentrating a beam of high-powered light into a fine focal point, generating the energy needed to melt, burn, or vaporize material along a programmed path.
The process begins with energy. A fiber laser source converts electrical power into a high-intensity beam of light. That beam travels through a fiber-optic cable, staying consistent and stable all the way to the cutting head.
Step 2: Focus the Beam
Inside the head, precision lenses focus the beam to an ultra-fine point, smaller than a human hair. At that scale, the heat is intense enough to melt or vaporize metal. Assist gas clears out the molten material, helping ensure clean edges and smooth cuts.
Step 3: Make the Cut
A CNC-controlled motion system moves the head along your programmed path. The result? Fast, repeatable, high-precision cuts with minimal waste and maximum control.
1. Generate Light
The process begins with energy. A fiber laser source converts electrical power into a high-intensity beam of light. That beam travels through a fiber-optic cable, staying consistent and stable all the way to the cutting head.
2. Focus the Beam
Inside the head, precision lenses focus the beam to an ultra-fine point, smaller than a human hair. At that scale, the heat is intense enough to melt or vaporize metal. Assist gas clears out the molten material, helping ensure clean edges and smooth cuts.
3. Make the Cut
A CNC-controlled motion system moves the head along your programmed path. The result? Fast, repeatable, high-precision cuts with minimal waste and maximum control.
Fibers Laser vs. Traditional Lasers
Fiber lasers and traditional lasers aren’t interchangeable; they’re built on entirely different technologies. While CO₂ lasers use gas-filled tubes and mirrors to generate and direct the beam, fiber lasers use solid-state diodes and fiber-optic cables for faster, more efficient energy delivery. This makes fiber lasers more compact, energy-efficient, and capable of cutting reflective metals that often challenge CO₂ systems. They're also lower maintenance, with no mirrors to align or gases to replace. For modern metal fabrication, fiber lasers offer a clear advantage in precision, speed, and reliability.
Thermal Cutting Without the Tradeoffs
Laser cutting is a non-contact process that delivers tight precision with minimal heat distortion or tool wear. Its fine beam enables smooth edges and detailed geometries. We take precision further with intelligent control, rugged design, and configurations built for real-world production. From fast jobs to tight tolerances, it’s performance you can count on.When to Use Laser Cutting
Laser cutting is best suited for fabricators working with sheet metals such as stainless steel, mild steel, and aluminum. It excels in applications that require repeatable parts, tight tolerances, and smooth finishes. Laser is particularly effective when working at high speeds or with high part volumes. Whether used as a standalone process or in tandem with forming and finishing operations, laser cutting provides consistency, flexibility, and long-term efficiency.