Laser-cut and press-brake formed steel, stainless, aluminum, copper and titanium, welded, fitted with hardware and finished under the same quote. One engineer specs the whole part against your drawing, so cutting, bending, welding and finish never drift apart.
Quick definition
Sheet metal bending (press-brake forming) shapes a flat, laser-cut blank into a 3D part by clamping it between a punch and a die and applying force along a straight line — the process behind enclosures, brackets, panels and chassis. It's paired with laser cutting, which produces the flat blank in the first place, so the two are usually specified and run as a single step.


One drawing, one owner
Cut it, bend it, weld it, fit the hardware, finish it — sourced separately, that's a cutting shop, a brake shop, a welder and a finisher, each with their own lead time and their own idea of what the drawing means. Send the same file to OperGo and one engineer specs all of it against the same drawing, so the bend allowance, the weld callout and the finish are locked in before the first cut — not discovered when the parts don't stack.
What we run
The flat blank behind every bent part — cut from steel, stainless, aluminum, copper, brass or titanium to the tolerance the bend needs, not just the outline.
Flat blanks folded into enclosures, brackets and panels, with bend allowance calculated per material and gauge — not one generic formula applied to everything.
Seams welded, PEM inserts pressed and studs fitted before the part ever leaves for finishing — not a separate job for a separate shop.
Anodizing, powder coating, painting or polishing, specified and applied under the same quote as the metal itself.
Under one quote
Cutting, bending, welding, hardware and finish specified together — nothing gets reinterpreted between steps.
The whole part is one line on one PO, not four vendors to chase separately.
The same certified quality system covers the finished part, not just the raw cut.
The spec sheet
Full range of materials and finishes on Materials & finishes →
Picking a process
Sheet metal wins on large, thin-walled enclosures and brackets at a lower cost per part. CNC wins when the part needs a machined pocket, a tapped hole pattern, or geometry a flat blank can't fold into.
If your part is flat — a plate, a panel, a flat bracket — laser cutting alone is faster and cheaper than adding a bend. Bending only earns its cost once the part actually needs to be three-dimensional.
Send the part and an engineer matches it to the right process — sheet metal, CNC or molding — based on wall thickness and geometry, not a guess.
No — cutting, bending, welding, hardware (PEM inserts, studs, threaded fasteners) and finish are specified and priced together, against the same drawing. You get one part, one lead time and one invoice, not a chain of vendors to coordinate yourself.
Cut tolerance is typically ±0.1mm on most gauges. Bend tolerance is typically ±0.5–1° angular and roughly ±0.15mm on flange length — standard for laser cutting and press-brake forming across the industry, confirmed against your exact geometry at quoting.
Not reliably — its temper is prone to cracking along the bend line. If your part needs bending in aluminum, 5052-H32 or 5754-H111 are the standard substitutes; 6061-T6 sheet is still available for parts that are laser-cut only, like flat plates or brackets that bolt together instead of folding.
Yes — C110 electrolytic copper and C260 half-hard brass, both up to 3mm. Both are reflective enough that they need a high-power fiber laser to cut cleanly, and bending is limited on the harder tempers, which your engineer will flag if your geometry calls for it.
Both, but as different capabilities: sheet is folded flat-blank-first on a press brake, while round and square tube is curved around a die on a CNC tube bender — see Tube Bending under capabilities. If a part mixes the two, one engineer quotes both halves together.
There's no fixed minimum — price is what naturally limits very small orders, not a policy. A single bent bracket gets quoted the same way a batch of a thousand does.
3 to 5 business days minimum for a small batch, depending on shop load — we don't hold a machine idle waiting on a job, so your engineer confirms a real date at quoting rather than a fixed promise upfront.
Then your engineer says so at quoting. If your part needs a machined pocket, a tapped hole a flat blank can't provide, or a volume where a molded part would be cheaper, they'll requote it under the right process instead. Opening this page doesn't commit you to one.
Laser cutting alone, for parts that stay flat and don't need to fold.
The bend-radius and hole-to-edge calls that decide tooling and cycle time.
CNC machining, injection molding, 3D printing and everything else we run.
Materials × process
Sourced, produced and finished under one quote. Tap a material to see the other processes it runs on — material and process are two axes you combine, not one nested inside the other.
Ready? Go.
Send one part or your whole BOM. An engineer reviews it with the shop floor and sends back a real price, a real lead time and free DFM notes.
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