FLAT-SHEET GEOMETRY. READY FOR FORMING.
Fiber laser cutting is suited to flat-sheet profiles, holes, slots, cut-outs and nested parts that move on to bending, hardware, joining or finishing. A 3000 W fiber laser can review sheets up to 2000 × 6000 mm. Carbon steel, stainless steel, aluminum, copper and brass can be reviewed up to 10 mm; final feasibility, cut condition and production plan depend on the alloy, thickness, feature geometry and finish requirements.
From Your DrawingMATERIAL OPTIONS
For laser-cut parts, material, alloy, thickness, surface condition and downstream process are reviewed together. The same nominal thickness does not imply the same cut behavior, edge condition or production plan across every metal.
Material guideSELECTED MATERIAL
Forms into lightweight panels, covers and brackets while maintaining useful corrosion resistance.
SURFACE FINISHES
Identify cosmetic faces, protected film or surface requirements, edges that need deburring, bend zones, hardware locations and surfaces that will receive welding or a downstream finish before cutting is scheduled.
A durable colored coating for protection and visual consistency.
View MoreA flexible color finish for cut sheet components.
View MoreCorrosion and wear resistance for compatible aluminum parts.
View MoreA directional satin texture for visible stainless steel and aluminum panels.
View MoreA cleaning treatment that improves stainless-steel corrosion resistance.
View MoreBUILT FOR A WIDE RANGE OF INDUSTRIES
Suitable for flat-sheet brackets, panels, covers, enclosures, plates and nested profile parts. The key decision is whether the cut geometry supports the bends, hardware, joining and finish required by the completed part.
Explore All Applications →
Flat patterns for brackets, covers and formed vehicle components
Lightweight cut panels, brackets and ground-support parts
Cut equipment panels, covers and fabricated device support parts
Chassis plates, rack panels and enclosure components
Control panels, brackets and power-equipment sheet components
Cut panels, brackets and protective onboard components
BUILT FOR DEMANDING PROJECTS
The flat pattern should communicate both the cut geometry and the operations that follow it, because those downstream requirements affect nesting, edge handling and protection of visible surfaces.
Provide the external profile, internal holes, slots, cut-outs, quantity and material so the sheet layout and part separation can be reviewed.
Identify small or closely spaced features for drawing review; kerf and heat-affected considerations depend on the material, thickness and geometry.
State deburring, visible-edge and handling requirements where the cut edge affects fit, safety, appearance or later coating.
Show bend lines, hardware, welding and finish requirements so cutting supports the order of later operations.
Identify visible faces, grain direction where relevant and protected areas before nesting, handling and finishing are planned.
A CLEARER PATH TO YOUR PARTS
Laser cutting converts the approved flat pattern into parts ready for the next operation; the review therefore includes the cut geometry as well as deburring, bending, hardware, joining and finish sequence.
Provide DXF or 2D/3D files, material, alloy or grade where known, thickness, quantity, finish, bend or hardware needs, delivery target and inspection requirements.
Review profiles, holes, slots, cut-outs, nesting, feature spacing, visible surfaces and the operations that follow cutting.
A 3000 W fiber laser can review sheets up to 2000 × 6000 mm. Carbon steel, stainless steel, aluminum, copper and brass can be reviewed up to 10 mm, subject to alloy, thickness and geometry.
Check drawing-defined cut geometry and feature locations, then plan deburring, protective handling and any requirements for bending, hardware, joining or finish.
Schedule from the approved drawing, material, thickness, quantity, downstream operations and agreed delivery terms; no fixed laser-cut lead time is published.
QUALITY ASSURANCE
Inspection is planned from the flat pattern, including cut geometry, feature locations, edge-condition expectations and the interfaces needed for bending, hardware, joining or finish.
Our Quality Process →
FROM PROTOTYPE TO PRODUCTION
Timing is planned after the material, thickness, feature geometry, nesting, edge handling, downstream operations and inspection scope are understood. No universal laser-cut lead time is published.
Review feature geometry, edge handling and downstream bend or hardware requirements before the route is fixed
Plan material, thickness, quantity, nesting and post-cut operations around the approved flat pattern
Coordinate deburring, bending, hardware, joining, finish and packaging requirements before scheduling
FREQUENTLY ASKED QUESTIONS