Brackets and mounting plates
Accurate profiles, holes, slots, and mounting features for equipment and assemblies.
Sheet Metal Manufacturing
Precision Fiber
Precision Fiber
Laser Cutting
Production-ready parts cut from carbon steel, stainless steel, and aluminum—from one-off components to repeat production.
6 kWFiber Laser Source
157 × 78 inMaximum Working Area
Up to 1 inCarbon Steel Capacity
NitrogenPrimary Assist Gas
Maximum capacity depends on material grade, geometry, required edge condition, and project specifications.
Controlled from file to finished profile
Clean geometry starts with a controlled process.
We review the drawing, material, thickness, contour geometry, and downstream requirements before cutting. The goal is not simply to separate material—it is to deliver parts that are ready for bending, welding, machining, or assembly.
01Drawing and geometry review
02Process selection by material and thickness
03Edge quality matched to downstream operations
What We Cut
Sheet parts built around the application.
From simple profiles to detailed production components, each project is reviewed for material behavior, geometry, and the operations that follow cutting.
Machine panels and guards
Large-format panels and protective components with repeatable cut geometry.
Enclosures and cabinet components
Cutouts, ventilation patterns, openings, and formed-part blanks for equipment housings.
Structural and frame components
Plates, reinforcements, frames, and heavier-gauge elements for fabricated structures.
Decorative and detailed profiles
Clean internal features and complex contours for visible or precision applications.
Prototype and production parts
One-off development parts, replacement components, and repeat production quantities.
Edge Quality
Cut for the next operation.
High-purity nitrogen is used on applicable work to produce clean, oxide-free edges that are better suited for welding, forming, coating, and assembly. Process parameters are selected around material, thickness, geometry, and the finished-part requirement.
- Reduced oxide on applicable materials
- Cleaner weld preparation
- Less secondary edge cleanup
- Consistent geometry across repeated parts
Nitrogen is the primary cutting gas. Oxygen may be selected for thicker carbon steel when required by the process.
Materials and Thicknesses
Core sheet materials. Qualified by project.
Representative maximums establish the machine envelope. Final capability is confirmed from the alloy, geometry, size, tolerance, and required edge condition.
Carbon Steel
Up to 1 inMachinery, structural components, brackets, frames, and general industrial fabrication.
Nitrogen for clean edges where applicable; oxygen may be used on heavier plate.Stainless Steel
Up to 3/4 inFood equipment, marine components, enclosures, architectural work, and process equipment.
Nitrogen cutting supports clean, oxide-free edges.Aluminum
Up to 3/4 inEquipment panels, lightweight structures, enclosures, prototypes, and product components.
Capacity and finish depend on alloy and thickness.
Where It Fits
A flexible process for serious industrial work.
Laser cutting supports both stand-alone flat parts and complete fabricated assemblies across a wide range of applications.
Industrial equipment
Automation and robotics
Food-processing equipment
Marine and outdoor products
Architectural metalwork
Product development and prototypes
Technical Specifications
The working envelope.
- Laser source
- 6 kW fiber laser
- Maximum sheet working area
- 157 × 78 in
- Carbon steel
- Up to 1 in*
- Stainless steel
- Up to 3/4 in*
- Aluminum
- Up to 3/4 in*
- Primary assist gas
- High-purity nitrogen
- Supported quantities
- Prototype, custom, and production runs
- Accepted project information
- DXF, drawing, material, thickness, quantity, and finish requirements
- Secondary services
- CNC forming and laser welding
*Maximum thickness is application-dependent. Final capability is confirmed after review of material grade, geometry, tolerances, edge requirements, and part size.
Featured Laser-Cut Work
View All Laser-Cut Parts
Real parts from our shop.
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Design and File Guidance
Give us the information that controls the result.
Drawings are reviewed before production. Complex geometry, tight tolerances, and special edge requirements may require additional engineering review.
Start a Quote- 01
Provide a DXF or dimensioned drawing
Include the complete cut geometry and any dimensions that define critical features.
- 02
Identify material and thickness
State the alloy or grade when it affects performance, certification, or finish.
- 03
State quantity and required lead time
Separate prototype quantities from anticipated repeat production when applicable.
- 04
Include tolerance, finish, and downstream requirements
Tell us when parts will be formed, welded, coated, machined, or used as visible components.
Frequently Asked Questions
Laser cutting questions, answered directly.
Our core sheet materials are carbon steel, stainless steel, and aluminum.
Material grade, surface condition, thickness, and the required finished edge are reviewed before
capability is confirmed.
The sheet laser has a working area up to 157 × 78 inches. Part size, sheet
availability, handling requirements, and nesting strategy are considered during review.
Representative capacities are up to 1 inch carbon steel and up to 3/4 inch
stainless steel or aluminum. Maximum thickness is application-dependent and must be confirmed after
reviewing the full part requirement.
High-purity nitrogen is our primary assist gas and is selected for clean,
oxide-free edges where applicable. Oxygen may be used for thicker carbon steel when it is the
appropriate process for the project.
Yes. We support prototypes, replacement parts, one-off custom work, and
production quantities. Project minimums and timing are confirmed during quoting.
Yes. AZ-CNC also provides CNC press brake forming and laser or MIG welding,
allowing many projects to remain with one accountable manufacturing partner.
A DXF is preferred for flat cut geometry. Dimensioned PDFs, STEP files,
SolidWorks files, and supporting technical drawings can also be included to communicate tolerances and
downstream requirements.
Customer-supplied material may be considered by review. We need to confirm
alloy identification, flatness, surface condition, usable sheet size, and available allowance before
accepting it for production.
Ready to Manufacture
Send the drawing.
Send the drawing.
We’ll review the process.
Upload your file with the material, thickness, quantity, and project requirements. Our team will review it and respond with the next step.