DIGITAL PROFILES01
Profile & Contour Cutting
Produce external profiles from simple plates and brackets to complex nested geometries with repeatable digital cut paths.
LASER CUTTING · FAST PROFILES · SECONDARY FABRICATION
Custom Laser Cutting Services for Precision Metal Parts
Cut precise profiles, holes and complex patterns without dedicated hard tooling. Mockup supports prototypes and production with bending, welding, finishing and inspection in one workflow.
- Cutting tolerances down to ±0.05 mm after review
- Sheet sizes up to 1500 × 3000 mm
- Prototype through repeat production
Upload your DXF, DWG, 3D model or drawing with material, thickness, quantity and finish. We will review cutting geometry, tolerances and downstream fabrication.
±0.05 mmAFTER REVIEW
1500 × 3000MAXIMUM SHEET
0.5–25 mmSTEEL RANGE
1 → repeatPRODUCTION SCALE
01 / LASER CUTTING CAPABILITIES
Precision Cutting for Simple and Complex Metal Profiles
Turn digital geometry directly into flat metal parts for prototypes, revisions and production without dedicated profile tooling.
DIGITAL PROFILES
COMPLEX FEATURES02
Holes, Slots & Cutouts
Cut mounting holes, slots, tabs, ventilation patterns and complex internal features directly from CAD geometry.
ACCURATE FLAT GEOMETRY03
Precision Sheet Components
Produce shims, panels, covers and chassis blanks where accurate flat geometry is critical to downstream fit.
MATERIAL EFFICIENCY04
Nesting & Material Optimization
Arrange multiple parts efficiently across each sheet to improve material utilization and reduce avoidable scrap.
CONTROLLED EDGES05
Deburring & Edge Conditioning
Supply parts as-cut or remove burrs, dross and sharp edges before forming, finishing or assembly.
CUT TO FINISHED PART06
Secondary Fabrication
Continue directly into bending, welding, hardware installation, finishing and assembly under one drawing revision.
02 / WHEN TO USE LASER CUTTING
Fast, Flexible Cutting When the Design Starts Flat
Laser cutting is strongest for complex 2D profiles, rapid prototypes and low-to-medium production volumes, with no dedicated profile tooling.
Laser Cutting
Punching / Waterjet / Stamping
MOVEMENT
Digital cut path
Tool or alternate cutting route
COMPLEXITY
High complexity
Feature- and route-dependent
SURFACE QUALITY
Process-dependent edge
Selected for repeated features or low heat
EFFICIENCY
Fast revisions
Volume-dependent
BEST FOR
Prototypes and flexible batches
Standard features, heat-sensitive edges or sustained volume
COST & INVESTMENT
No profile tooling
Tooling economics apply
03 / PROTOTYPE TO PRODUCTION
Move From First Cut to Repeat Production
Keep the approved CAD revision, material, downstream operations and inspection plan connected as volume grows.
Rapid Prototypes
Produce functional metal parts without dedicated tooling and move revised geometry quickly into the next iteration.
Low-Volume Production
Support flexible batches with the same digital cutting process used during prototype validation.
Repeat Production
Carry approved revisions, material specifications, secondary operations and inspection requirements into future releases.
04 / TECHNICAL RANGE
Laser Cutting Specifications
Typical manufacturing ranges are reviewed against material grade, thickness, part size, small features, heat input and required edge quality.
SpecificationDescription
Maximum sheet sizeUp to 1500 × 3000 mm
Carbon steel thickness0.5–25 mm
Stainless steel thickness0.5–20 mm
Aluminum thickness0.5–15 mm
Copper / Brass thicknessUp to 8 mm
General cutting tolerance±0.10–0.20 mm
Tight feature toleranceDown to ±0.05 mm after review
Minimum hole diameterTypically ≥ material thickness
Minimum web / slotTypically ≥ 0.8–1.0 × thickness
Kerf widthTypically 0.10–0.40 mm
Edge conditionAs-cut / Deburred / Brushed / Finished
Production quantity1 piece to repeat production
05 / MANUFACTURING CAPACITYYour Laser Cutting
Your Laser Cutting
Partner in China
Move from flat profiles to finished components with cutting, bending, welding, finishing and inspection coordinated around one drawing revision.
10+ YearsExperience
10,000+Projects Delivered
100+Countries Served
Prototype → ProductionManufacturing Support
06 / MATERIALS
Metals for Laser Cutting
Compare common engineering metals by cutting behavior, edge quality, feature size and downstream fabrication needs.
01
Carbon Steel
0.5–25 mm | Cost-effective for brackets, plates, frames, guards and industrial components.
07 / QUALITY & EDGE CONTROL
Control the Cut Before the Part Moves Downstream
Cut quality must support bending, welding and assembly. Grain direction, protective film and cosmetic faces are controlled during nesting when specified.
Cut quality must support bending, welding and assembly. Grain direction, protective film and cosmetic faces are controlled during nesting when specified.
- ✓Flat dimensions and profile accuracy
- ✓Hole, slot and kerf-sensitive features
- ✓Burr, dross and heat-tint condition
- ✓Material verification and flatness
- ✓Cosmetic surface protection
08 / LASER CUTTING DFM
Design for Cleaner, More Predictable Cutting
Good DFM improves edge quality, material utilization and downstream fabrication.
Match features to thickness
Size minimum holes and narrow webs around material thickness.
Respect the kerf
Avoid tiny internal features dominated by kerf width.
Separate line types
Keep bend and marking lines distinct from cut geometry.
Define holding strategy
State whether micro-joints or holding tabs are acceptable.
Control appearance
Identify grain direction, cosmetic faces and protective-film requirements.
Dimension final function
For formed parts, control interfaces around final geometry rather than the flat blank alone.
09 / SECONDARY FABRICATION & FINISHING
From Laser-Cut Blanks to Finished Parts
Coordinate downstream operations around the final drawing so cut features, formed dimensions, cosmetic surfaces and assembly interfaces remain controlled.
Bending & Forming
Press-brake forming planned around bend radius, allowance, springback and hole-to-bend relationships.
Explore sheet metal fabrication↗
Welding & Joining
TIG, MIG, spot welding, riveting and fastening with attention to weld sequence and distortion.
Explore sheet metal fabrication↗
Hardware Installation
PEM nuts, studs, standoffs, rivet nuts and inserts installed to drawing orientation.
Deburring & Edge Finishing
Edge rounding, brushing and polishing improve handling, assembly and appearance.
Explore surface finishing↗
Surface Finishing
Powder coating, anodizing, passivation, plating, blasting, brushing, polishing and painting.
Explore surface finishing↗
Assembly
Combine formed parts with machined components, hardware and purchased parts before inspection.
10 / COMMON LASER-CUT PARTS
Laser-Cut Metal Parts for Product Development and Production
Deliver flat blanks or complete fabricated components across common engineered product categories.
Brackets & Mounting Parts
Flat or formed mounting components with holes, slots, tabs and assembly features.
Panels & Covers
Equipment panels, access covers and guards with complex openings or ventilation patterns.
Chassis & Enclosure Parts
Cut blanks that continue through bending, hardware and finishing into complete housings.
Shims & Precision Plates
Thin components where profile geometry, hole location and thickness are critical.
Guards & Structural Components
Machine guards, frames and structural parts ready for forming, welding and finishing.
11 / PROJECT EVIDENCE
Laser Cutting Project Examples
Each route connects flat geometry to the final functional and inspection requirements.
01 / ROUTE
Precision Sheet Metal Bracket
Stainless bracket · Laser cutting, deburring and bending · Flat and post-bend dimensional inspection supported rapid prototype revisions.
02 / ROUTE
Complex Electronics Panel
Aluminum panel · Laser cutting, bending and hardware installation · Connector openings and assembly fit controlled without profile tooling.
03 / ROUTE
Finished Production Component
Carbon steel component · Cutting, bending, welding and powder coating · Final mounting geometry verified after finishing.
Laser cutting questions, answered.
What files are best for laser cutting?+
DXF or DWG files work well for flat geometry. For formed or assembled parts, also provide a 3D model and dimensioned drawing with material, thickness, quantity, finish and critical tolerances.
What materials can you laser cut?+
Carbon steel, stainless steel, aluminum, galvanized steel, copper and brass are available. Thickness depends on material, geometry and edge-quality requirements.
What tolerances can laser cutting achieve?+
General tolerances are typically ±0.10–0.20 mm. Selected critical features may reach ±0.05 mm after engineering review.
Does laser cutting create a heat-affected zone?+
Yes. Its significance depends on the material, thickness, edge requirement and final application.
Can you bend, weld and finish laser-cut parts?+
Yes. Parts can continue into bending, welding, hardware installation, finishing and assembly through one manufacturing route.
How does laser cutting compare with stamping?+
Laser cutting offers flexibility without profile tooling; stamping becomes more economical when sustained volume justifies dedicated production tooling.
LASER CUTTING ENGINEERING REVIEW
Upload my laser cutting files ↗Get a Laser Cutting Quote
Send your flat geometry, drawing, material, thickness, quantity, finish and critical requirements for review.