Turn your DXF into custom profiles, panels, and brackets. Fiber laser cutting holds tolerances to ±0.005″, with no dedicated tooling required.
CNC press brake bending with air-bend dies for enclosures, chassis, and bracket work. Every bend programmed and verified before production.
HP Multi Jet Fusion 3D printing for functional parts, jigs, brackets, and enclosures. Fast turnaround, production-grade materials, and tolerances that fit alongside your laser-cut components.
CNC milling for complex pockets, slots, countersinks, and custom profiles that go beyond flat-sheet capability. Tight tolerances held on 3-axis and multi-setup parts.
Type II anodizing electrochemically grows an oxide integral to aluminum. Dye enters the porous structure and sealing closes the surface, so the finish cannot peel or flake like a deposited film.
Compatible parts share cutting sheets, setup context, and batch capacity. The quote exposes how unit economics change at 10, 25, and 100+ units before you commit inventory.
Bring your design. Choose your material.
Take the next step toward finished parts.
Or open the quoter to choose your files.
Upload CAD filesDXF / STEP / STPUp to 20 MB each50 files max.
Your files are protected with encryption during upload.
Make production decisions before production starts. Quote parts and test bends with browser tools built on our shop’s data, tooling, and design rules.
Upload a STEP or DXF and turn your design into a production-backed price. Configure material, bends, hardware, and finish, with manufacturability checks before you order.
Open the quoting appWork through every bend before metal moves. Check tooling clearance, die-shoulder keep-outs, and bend allowance, then export a STEP or DXF ready for the next step.
Open the bend simulatorUpload a STEP file to inspect its bends, flat patterns, and sheet thickness. Review the part in 3D and explore its bending setup before production.
Open SheetForm
Carry design intent all the way to the inspection bench. Turn a model into a dimensioned print with bend callouts, hole tables, and tolerances, keeping the quote and the shop floor on the same page.
Built in-house, on the same bend data, tooling library, and DFM rules that run our floor.
Explore the engineering guides →Prepare your files. Choose your process. Know what to expect. Practical tutorials for the decisions between a design and a finished part.
Upload your DXF, select material and finish, and receive a proofed drawing and price the same day.
Watch Tutorial →
High-powered fiber lasers cut metal with ±0.005″ accuracy — and why it beats plasma for panel work.
Watch Tutorial →
Precision air-bend dies fold sheet metal to exact angles — and how bend allowance affects your DXF.
Watch Tutorial →
File requirements, layer setup, and the common mistakes to avoid before sending your design to production.
Watch Tutorial →
Why anodizing outperforms paint — color selection, MIL-PRF-8625 requirements, and turnaround times.
Watch Tutorial →
Cost, lead time, color range, and which finish is the right choice for your application.
Watch Tutorial →
What kerf is, how much material is removed per cut, and how to offset geometry for exact dimensions.
Watch Tutorial →
How press-in PEM nuts, studs, and standoffs are factory-installed — specs and design callouts.
Watch Tutorial →Understand what determines the outcome. Five field notes on the machines, methods, and decisions that turn your design into a finished part.
01
Follow the beam from ytterbium-doped fiber to a microscopic focal point, then through the metal with assist gas, controlled kerf, and repeatable energy density.
02
Machines create capability. Process, material control, experienced judgment, and inspection turn that capability into consistently correct parts.
03
A smart factory behind a browser tab gives builders and businesses industrial capability without machine ownership, minimum quantities, or purchasing friction.
04
One prototype and one production run need different packaging and freight logic. Learn how parcel, LTL, and truckload routes protect the part and the schedule.
05
Nearly every watt entering a machining process becomes heat. See how deformation, friction, chip evacuation, and material behavior govern tolerance and tool life.
Custom metal brackets, steel weld tabs, aluminum plates and detailed profiles, made at Xeon NC in Nampa, Idaho. Explore these laser-cut and formed parts, then bring us your own design.
This custom stainless steel bracket combines a cut outline with several bends. The offset profile, notched ends and round mounting hole show how a flat sheet can become a formed metal part.
For a bracket like this, include the formed model or a dimensioned drawing with bend directions, angles and hole locations. Specify the stainless grade, thickness and quantity for your design.
A toothed outer profile surrounds a central opening with a keyway in this steel sprocket. It is an example of a custom laser-cut profile with both external and internal features.
Supply the complete tooth profile, bore and keyway geometry in your CAD file. Include a drawing for any fit requirements or secondary machining so those features can be reviewed with your quote.
This steel weld tab has a rounded top, a straight base and one circular hole. The simple outline is a useful example of a small laser-cut component made to a specific drawing.
For custom weld tabs, provide the outline, hole diameter, hole-center location and material thickness. Include the steel grade and quantity, plus any edge or finishing requirements.
Four arms, multiple hole patterns and internal cutouts form this aluminum frame plate. It shows how a more detailed flat profile can bring mounting features and clearance openings into one part.
Upload the complete outline and hole patterns for your frame. Specify the aluminum grade and thickness, and identify any mounting dimensions that need review against a mating component.
This sprocket-shaped part pairs a toothed rim with long slots, circular holes and hexagonal openings in the spokes. The photo highlights the variety of cut features that can be included in one sheet-metal profile.
Include every opening and the finished outer profile in the CAD file. Specify the sheet material and thickness, and flag narrow connections or functional tooth geometry for review.
Curved spokes connect the center of this steel plate to a scalloped outer rim. Repeated holes around the rim and center sit alongside the larger internal cutouts.
Provide the full curved geometry and hole pattern, along with the material grade and thickness. Use a drawing to identify hole locations, fit requirements and any features that need secondary work.
Two countersunk holes are visible in this rectangular aluminum plate with rounded corners. It is an example of a custom metal plate with an additional hole-finishing operation.
For a plate like this, include the fastener size, countersink angle and required side of the part. Supply the plate thickness and hole locations so the countersinks can be reviewed with the drawing.
This steel plate part has a toothed edge, five spokes and holes around its central opening. The exposed edge makes the cut profile visible through the plate thickness.
For custom gear-shaped parts, provide the exact profile and material specification. Call out tooth, bore and hole-fit requirements on a drawing so any finishing or machining needs can be reviewed.
Folded side flanges give this steel chassis rail its formed profile. A large central opening, smaller holes and end cutouts show the combination of cut features and bends in the same part.
Include a formed model or drawing with flange heights, bend directions and hole locations. Specify the steel grade, thickness and quantity, and identify any dimensions that control how your part fits an assembly.
Laser cut · Formed · Countersunk — Nampa, Idaho
Quote your own part →// Ready to Build
Upload your design. Get a quote. Put our shop floor to work.
Start a quoteSoftware, equipment, and people working from the same requirements. Your design connects the quote, the shop floor, and the finished part.
Turn a DXF or STEP into a quote you can act on. See how material, quantity, and finish affect the price before committing to production.
Digital job tracking, automated laser programs, and optimized nesting carry your order through the factory. Operators use those tools to control each step.
Fiber laser cutting, CNC press brake bending, countersinking, tapping, hardware insertion, powder coating, and Type II anodizing — all under one roof.
One team. From file to finish. Work directly with the people and equipment turning your design into parts.
Explore All Capabilities →Start with the 3D part, then step through every stage — from instant quote to the moment it ships.
Bring us your drawings, requirements, or a design question. Our engineering team will respond within one business day. Ready for pricing? Start with an online quote.
