Laser Cutting
Turn sheet metal into panels, plates, brackets, and enclosure parts with laser cutting. K-Display cuts your geometry and carries it through forming, welding, finishing, and assembly when the job calls for more.
Complex profiles. No dedicated cutting die.
Laser cutting creates the outside shape and internal openings of a sheet-metal part from a programmed path. It is a useful choice for intricate outlines, mounting patterns, and access cutouts without investing in a dedicated die. The result can be a finished flat component or the starting blank for a formed assembly.

A cut edge may become a mating surface, a visible border, or the start of a weld joint. Identify its job and required condition so cutting and any later edge preparation can be planned together.
Openings that make the part work
A mounting hole locates a component. A slot allows adjustment. An access cutout makes room for hardware or service. Laser cutting brings these features into the same flat part.
- Access panels with mounting holes and ventilation slots
- Mounting plates with component and cable openings
- Bracket blanks prepared for press-brake forming
- Enclosure covers with cutouts for specified hardware
Cut here. Complete it here.
A hole in the flat blank still has to land in the right place after bending. Our cutting and forming work stays connected, with the finished shape, coating, and hardware informing the cut from the outset.
Start with the finished part
We use the flat and formed geometry to identify profiles, mounting features, and critical fits, then establish the cut around your material and thickness.
Cut the profiles and openings
The programmed laser path produces the specified outline and internal features, with edge requirements defined for the next operation.
Build beyond the blank
Receive flat components or continue with in-house bending, joining, powder coating, hardware installation, and assembly.
Material, geometry, and fit
A focused beam melts the metal while cutting gas clears it from the narrow cut, called the kerf. Material, thickness, and feature geometry affect the result. Specify the dimensions that control fit and any edge treatment the part needs before coating or assembly.
We work with aluminum, carbon steel, stainless steel, galvanized steel, and galvanneal. Grade and thickness matter alongside the shape; include both with your drawing.
- Materials
- Aluminum, Carbon steel, Stainless steel, Galvanized steel, Galvanneal
Design the openings around their job
Identify which holes locate components, which provide clearance, and which edges remain visible. Show mating parts or hardware where fit matters. For a panel like the illustration, the mounting pattern and access opening need to work together; an outline alone does not communicate that relationship.
If the blank will be bent, include the formed model or drawing as well as any flat geometry. Flag features near bends for review. Specify edge condition and coating requirements before cutting so preparation for the next operation can be considered.

Dimension openings from the features that locate the mating components. The access cutout and mounting pattern need to agree with the same assembly, including its finished clearances.
For your laser-cutting quote
Share your files, quantity, and the condition you need the parts delivered in. A sketch can start the conversation.
- Material
- Metal type, grade, and sheet thickness.
- Files and revision
- DXF for flat geometry, STEP for 3D intent, PDF for dimensions and notes.
- Critical features
- Tolerances, mating interfaces, and edge requirements.
- Quantity and timing
- Part quantities and the delivery target.
- Finished state
- Forming, welding, coating, hardware, and assembly needs.
