The Future of Multi-Axis Laser Cutting: Is 3D Profiling the Next Standard?
- 30-06-2025
- Featured Products

The metal fabrication industry continues to evolve, driven by growing demands for precision, efficiency and automation. Among the most significant recent developments is the rise of multi-axis cutting, or 3D profiling – a technique that adds a third axis to traditional two-dimensional cutting processes, enabling far more complex geometries and processes in a single operation.
But what defines 3D profiling, and what implications does it hold for manufacturers? More critically, is it becoming an industry standard?
What Is 3D Profiling?
3D profiling refers to the ability of cutting systems to move along the X, Y and Z axes, typically achieved through the integration of a bevel head. This enables machines to make angled cuts and prepare components for welding or assembly directly during the cutting process. The capacity to machine chamfers, tapered edges and other geometric features directly into the workpiece greatly reduces secondary processing and manual handling.
This approach is applicable across various cutting technologies, including laser, plasma, and waterjet systems. While these systems differ in how they generate and deliver energy to the material, the incorporation of multi-axis capability offers benefits across the board.
Why Add the Third Axis?
The integration of a Z-axis or bevel cutting head significantly expands the functional range of profiling equipment. Benefits include:
- Weld Preparation: Angled cuts facilitate joint design and welding accuracy without secondary operations.
- Improved Edge Geometry: Clean bevels and tapered cuts can be integrated directly into production.
- Reduced Labour and Handling: Components require less repositioning or post-processing.
- Enhanced Design Flexibility: More complex and integrated parts can be cut in a single setup.
By enabling these capabilities, 3D profiling reduces total production time and increases component consistency; key factors in lean manufacturing.
Laser vs Plasma vs Waterjet: A Trade-Off of Speed, Cost and Accuracy
When considering whether to implement laser, plasma, or waterjet cutting for 3D profiling, it's important to understand the trade-offs between precision, cost-efficiency and operational demands.
Laser cutting
A highly precise and energy-efficient process when used on steel and aluminium sheets. Thanks to focused light beams and minimal human input, lasers offer excellent detail and edge quality on metals, plastics, ceramics, and even glass. Historically seen as a premium option, recent technological advances have made laser cutting more accessible, increasing its adoption across industry sectors.
Plasma cutting
This process is more affordable for thicker materials and faster than laser when cutting metal thicker than 3mm. While it introduces a slight bevel and produces more fumes and heat, it is easier to operate and maintain, requiring minimal training. It cannot cut non-conductive materials like wood or plastic, but it is a robust choice for heavy-duty fabrication.
Waterjet cutting provides a unique advantage in that it can cut virtually any material from titanium to ceramics, using a high-pressure stream of water that is sometimes combined with abrasive particles. It's also a cold cutting process, so it is more suitable for heat-sensitive applications and materials. However, waterjets consume more power, generate more waste and require more post-processing and PPE due to noise and debris. They are often chosen for materials sensitive to high temperatures or where no thermal distortion can be tolerated.
In summary, the choice of cutting technology must consider initial investment, running costs, environmental requirements, and operator experience; all of which directly affect productivity and the bottom line.
Is 3D Profiling the New Standard?
While traditional flat-bed cutting still dominates much of the industry, the rise in multi-axis systems reflects a broader shift toward automation and in-line processing. As manufacturing evolves to accommodate just-in-time production, higher tolerances, and reduced labour, 3D profiling provides a practical advantage.
Not every project requires angled cuts or weld prep, but having the capability broadens the scope of what a single machine can achieve, often making the investment worthwhile in terms of versatility alone.
In many modern metal shops, what was once considered a premium feature only accessible by outsourcing to specialist contractors is fast becoming standard in-house machinery.
Multi-Axis Laser and Plasma Cutting Machines
Several modern cutting machines now incorporate 3D profiling technology.
Fibre Lasers for Sheet Metal
Fibre laser cutting machines with bevel heads are well-suited for sheet metal applications, where speed, repeatability and detail are critical. These systems combine rapid processing with the ability to execute precise angled cuts on flat material, offering a streamlined workflow for manufacturers producing small to medium-thickness parts.
Tube Lasers for Tubular Products
The XTR Tube Fibre Laser introduces multi-axis profiling for round, square and rectangular tubes. Angled cuts, slots and compound features are made possible; attributes particularly useful in architectural, structural and automotive applications.
High Definition Plasma for Sheet Metal
High Definition Plasma Cutting Machines support bevel cutting in thicker materials. Plasma technology, while not as fine as laser cutting, is well suited for structural and general fabrication, particularly when cost-efficiency is a priority.
Tube Plasma for Heavy-Duty Tube Work
Tube Plasma Cutting Machines extend 3D profiling to heavy-walled tubes and pipes. This setup is particularly useful in sectors requiring high throughput and durability without sacrificing cutting angle precision.
Ready to Explore 3D Profiling?
If you're evaluating whether 3D profiling could enhance your cutting capabilities, it's worth investigating how bevel heads and multi-axis control can be integrated into your existing workflows. Whether cutting sheet, tube, or plate, these technologies offer tangible improvements in productivity and flexibility.
Contact Morgan Rushworth to discuss your 3D profiling requirements with our team of experts.