Laser Cutting Services for Custom Metal Parts
Xiongfeng provides custom laser cutting services for sheet metal parts, flat profiles, brackets, panels, enclosures, chassis, covers, plates, and fabricated assemblies. Our capabilities include DFM review, CAD preparation, nesting, laser cutting, deburring, bending, welding, hardware installation, finishing, inspection, assembly, and low-volume production.
- Fiber laser cutting for metal sheet and plate
- Complex profiles, holes, slots, and patterns
- Prototype to repeat production quantities
- Secondary fabrication and finishing
From CAD Profile to Finished Metal Component
Laser cutting uses a focused energy beam to separate metal along a programmed path. Because the profile is controlled directly from CAD data, it is suitable for prototypes, design revisions, complex flat patterns, mixed-part nests, and repeat manufacturing.
A complete cutting plan must consider material grade, thickness, surface protection, hole size, narrow features, corner geometry, kerf, heat input, assist gas, edge requirements, tolerances, downstream bending, welding, finishing, and assembly.
- Complex flat profiles and curved geometries
- Holes, slots, tabs, vents, and perforations
- Part numbers and reference markings
- Mixed-part nesting for material utilization
- Prototype and low-volume flexibility
- Parts ready for bending, welding, or finishing
Why Use Laser Cutting for Custom Metal Parts?
Laser cutting provides design flexibility, repeatable digital processing, limited mechanical contact, and an efficient route from CAD files to fabricated components.
Precision Cutting for Different Metal Part Requirements
The correct cutting strategy depends on alloy, thickness, geometry, quantity, surface condition, edge requirements, tolerance, heat sensitivity, and downstream fabrication.
2D Profile Laser Cutting
Cutting of external profiles and internal features directly from approved CAD or drawing data.
- Contours, curves, and detailed profiles
- Openings, cutouts, and windows
- Prototype and production quantities
Holes, Slots, and Perforations
Programmed hole patterns, slots, vents, perforations, tabs, and mounting features for fabricated components.
- Mounting and ventilation patterns
- Repeated and mixed feature layouts
- Downstream hardware preparation
Sheet and Plate Cutting
Profile cutting for thin sheet and heavier plate, subject to the material, thickness, geometry, edge, and equipment capabilities.
- Custom blanks and flat patterns
- Structural plates and machine parts
- Material-specific process review
Laser Marking and Reference Lines
Selected projects can include part identification, assembly references, bend references, or traceability markings.
- Part numbers and identifiers
- Assembly and orientation references
- Project-specific marking depth
Nesting and Batch Cutting
Parts can be arranged digitally across the sheet to improve material use and support mixed-part production.
- Mixed component nests
- Material utilization planning
- Batch identification and separation
Secondary Fabrication
Laser-cut parts can continue through deburring, bending, welding, hardware installation, finishing, inspection, and assembly.
- Press-brake bending and forming
- Welding and self-clinching hardware
- Surface finishing and subassembly
Custom Flat Parts and Fabricated Components
We support laser-cut parts with different geometries, materials, thicknesses, finishes, hardware, bend structures, and quantities.
Panels and Faceplates
Control panels, access panels, front plates, machine covers, interface panels, and ventilation panels.
Brackets and Mounting Plates
Flat brackets, mounting plates, reinforcement plates, supports, flanges, and parts prepared for bending.
Machine and Equipment Parts
Guards, spacers, shims, bases, plates, frames, tabs, and application-specific mechanical components.
Enclosures and Chassis Parts
Flat patterns and components for housings, cabinets, electronics, instruments, equipment, and fabricated assemblies.
Metal Alloys for Different Cutting Requirements
Material selection and cut feasibility depend on alloy, thickness, reflectivity, coating, surface film, edge requirements, thermal behavior, downstream fabrication, and final application.
Stainless Steel
Suitable for corrosion-resistant panels, enclosures, equipment parts, food-related components, and industrial applications.
Carbon and Mild Steel
A common choice for brackets, structural plates, frames, machinery, cabinets, and coated assemblies.
Aluminum
Lightweight and corrosion resistant for electronics, equipment, transportation, panels, enclosures, and product components.
Galvanized Steel
Zinc-coated steel for applications requiring additional corrosion protection and sheet-metal fabrication.
Copper
Used for electrical, thermal, grounding, shielding, busbar, and application-specific components.
Brass
Suitable for decorative, electrical, architectural, product, and specialty fabricated parts.
Pre-Finished Sheet
Coated or protected sheet can be reviewed according to film, finish sensitivity, cutting direction, and edge requirements.
Specialty Alloys
Other laser-cuttable materials can be evaluated based on grade, thickness, cutting behavior, availability, and project needs.
Key Design Considerations for Laser-Cut Parts
Good cutting design helps control edge quality, heat effects, distortion, fragile features, downstream bending, assembly, and avoidable manufacturing cost.
| Design Element | Cutting Consideration | Buyer Guidance |
|---|---|---|
| Small Holes | Feasibility depends on material, thickness, heat, gas, and required edge condition | Identify only functionally critical small holes |
| Narrow Features | Thin webs and narrow tabs may distort, overheat, or become fragile | Increase feature width where the design allows |
| Inside Corners | The laser kerf naturally creates a small corner radius | Avoid requiring perfectly sharp internal corners |
| Part Spacing | Nesting distance affects heat distribution, cut stability, and material use | Allow the manufacturer to optimize nesting |
| Cosmetic Surfaces | Handling, protective film, assist gas, and secondary finishing affect appearance | Mark visible surfaces and acceptable handling limits |
| Tolerances | Depend on material, thickness, profile size, heat, equipment, and downstream processes | Apply tight tolerances only to critical features |
Laser-Cut Metal Parts for Multiple Industries
We support product developers, equipment manufacturers, engineering teams, brands, importers, and supply-chain partners.
Electronics
Industrial Equipment
Automotive
Medical Equipment
Home Appliances
Consumer Products
From CAD Files to Finished Laser-Cut Parts
A structured workflow helps control geometry, material utilization, cutting parameters, edge condition, identification, inspection, and downstream fabrication.
Drawing and DFM Review
Review CAD files, material, thickness, quantity, holes, narrow features, tolerances, finish, bending, welding, and delivery needs.
Programming and Nesting
Prepare cutting paths, lead-ins, part orientation, identification, and nesting based on the approved manufacturing plan.
Laser Cutting and Deburring
Cut the profiles using material-appropriate parameters, separate parts, remove permitted burrs or dross, and protect surfaces.
Inspection and Secondary Work
Inspect critical features and continue through bending, welding, hardware, finishing, assembly, packaging, and delivery as required.
Why Choose Xiongfeng for Laser Cutting Services?
We combine engineering review, cutting, bending, welding, hardware, finishing, inspection, assembly, and project communication within one coordinated manufacturing workflow.
DFM and Drawing Support
Review of profiles, holes, slots, narrow features, material, tolerances, edge conditions, finishes, and downstream fabrication.
CAD-Driven Flexibility
Different profiles and design revisions can be processed without dedicated profile tooling.
Flexible Production Quantities
Support for prototypes, engineering samples, pilot runs, mixed batches, bridge production, and repeat orders.
Multiple Metal Options
Stainless steel, carbon steel, aluminum, galvanized steel, copper, brass, and selected specialty alloys.
Secondary Fabrication Support
Deburring, bending, welding, hardware installation, finishing, marking, assembly, and packaging.
Dimensional and Visual Inspection
Profiles, hole locations, edge conditions, surfaces, dimensions, hardware, fit, and finished assemblies can be checked.
Inspection Throughout the Laser Cutting Process
Quality planning begins with approved CAD data, material, thickness, profile dimensions, hole locations, surface condition, edge requirements, identification, downstream fabrication, and final assembly expectations.
Finishing and Fabrication After Laser Cutting
Laser-cut blanks can continue through additional processes to become complete fabricated parts, enclosures, frames, panels, or assemblies.
Deburring
Removal of sharp edges, micro-burrs, or permitted cutting residue.
Precision Bending
Press-brake forming of brackets, channels, panels, and enclosures.
Welding
Project-appropriate joining for frames, cabinets, and assemblies.
Hardware Installation
Self-clinching nuts, studs, standoffs, rivets, and inserts.
Powder Coating
Durable colored finish for equipment, panels, and enclosures.
Anodizing
Protective and decorative finish for suitable aluminum alloys.
Plating and Passivation
Project-specific metallic or chemical surface treatments.
Marking and Assembly
Identification, labels, printing, subassembly, and packaging.
Laser Cutting Services FAQs
Learn more about materials, thickness, edge quality, tolerances, files, marking, bending, finishes, quantities, and inspections.
What is laser cutting?
Laser cutting is a digital manufacturing process that uses a focused energy beam and controlled motion to cut custom profiles and internal features from sheet or plate material.
What metals can be laser cut?
Common materials include stainless steel, carbon steel, mild steel, aluminum, galvanized steel, copper, brass, and selected specialty alloys. Feasibility depends on grade, thickness, reflectivity, coating, and required edge condition.
What thicknesses can you laser cut?
The suitable thickness range depends on material, alloy, equipment, laser power, assist gas, feature geometry, cut speed, and required edge quality. The exact requirement should be reviewed from the drawing and material specification.
What files are required for a laser cutting quotation?
- DXF or DWG flat-profile files where available
- STEP, STP, or X_T files for fabricated components
- 2D drawings with dimensions, tolerances, and datums
- Material grade and thickness
- Initial and repeat quantities
- Edge, finish, bending, welding, hardware, and delivery requirements
Can you laser mark part numbers or bend lines?
Selected parts can include identification, reference, or bend markings. The required visibility, depth, location, and effect on the final surface should be defined before production.
Do laser-cut parts require deburring?
Deburring requirements depend on material, thickness, cutting condition, edge standard, safety, appearance, welding, finishing, and assembly. Requirements should be stated on the drawing or purchase specification.
Can you bend and weld the parts after cutting?
Yes. Laser-cut components can continue through press-brake bending, forming, welding, self-clinching hardware installation, finishing, inspection, assembly, and packaging.
Can laser cutting support prototypes and production quantities?
Yes. The tool-free digital profile process is suitable for prototypes, engineering samples, pilot runs, mixed batches, lower-volume manufacturing, and repeat production.
Design, Material, and Quality Guides
Explore practical information about laser-cut part design, materials, tolerances, edge quality, nesting, secondary fabrication, and cost.
Laser Cutting Design Guide for Sheet Metal Parts
Learn how holes, narrow features, corners, nesting, tolerances, surface protection, and downstream bending affect the design.
Read Article →
Laser Cutting Materials Guide
Compare steel, stainless steel, aluminum, galvanized sheet, copper, brass, and specialty alloys for custom parts.
Read Article →
Laser Cutting Tolerances and Edge Quality
Understand how material, thickness, geometry, heat, gas, cutting parameters, and downstream processing affect results.
Read Article →
Start Your Laser Cutting Project
Upload your CAD files and drawings. Our team will review the material, thickness, quantity, geometry, tolerance, edge condition, finish, bending, welding, hardware, inspection, packaging, and delivery requirements.
- Laser cutting DFM and drawing review
- Material and process recommendations
- Prototype and production quotations
- Secondary fabrication, finishing, and inspection support
Request a Laser Cutting Quote
Complete the form and upload your project files. Our team will review the parts and respond with manufacturing feedback.