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CutOptim

Metal fabrication
cutting optimizer

Steel sheets, aluminum profiles, copper tubing — 1D and 2D optimization for metal fabrication.

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Why is metal fabrication waste so expensive?

Metal stock is expensive, and recycling waste is costly too. Both 1D optimization for profiles and tubes, and 2D optimization for sheets are critical for cost-effective production.

How does dual-mode optimization save metal?

CutOptim handles both 1D (profiles, tubes, bars) and 2D (sheets, plates) optimization simultaneously. Manage multiple material types in a single project.

Industry at a glance

1.89 billion tonnes
Global steel production (2023)
World Steel Association
10–20%
Sheet metal scrap rate (industry avg)
Manufacturing industry data
€800–2,500 per tonne
Steel sheet price range
European market (2024)
0.1–0.3 mm
CNC laser kerf width
Machine specifications
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1D + 2D combined

Profiles and sheets in one project — no need for two software tools.

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Cutting sequence

Precise cutting order and waste list for 1D optimization.

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Cost calculation

Real-time material cost estimation per m² or linear meter.

Common use cases

Real-world scenarios where cutting optimization makes the biggest difference.

Sheet metal parts

Cutting brackets, panels, and enclosures from mild steel or stainless steel sheet. 2D optimization reduces the number of sheets needed.

MATERIALSteel sheet 2000×1000mm, 1–3mm thick
SAVINGSReduce sheet count by 15–25%

Structural profiles

1D optimization for cutting steel tubes, angle iron, and C-profiles to length. Batch cutting of fence posts, framework, and support beams.

MATERIALRectangular tube 40×20mm, 6m stock lengths
SAVINGSSave 10–20% on profile material

Roofing & cladding

Trapezoidal sheet and standing seam panels cut from coils or stock lengths. 1D optimization minimizes off-cuts.

MATERIALTrapezoidal sheet, various lengths 2–6m
SAVINGSReduce roofing waste by 50%+

Aluminum fabrication

Window frames, curtain walls, and decorative panels from aluminum sheets and extrusions. Both 1D profiles and 2D sheets in one project.

MATERIALAluminum sheet 2500×1250mm, profiles 6m
SAVINGSCombined 1D+2D savings of 15–30%
📊 Real example: Steel railing fabrication

A metalworker fabricates railings from 40×20mm rectangular tubing and 2mm steel sheet. 15 profile lengths + 8 sheet pieces.

Before
Manual planning18m profile + 3 sheets
Waste19%
Planning time1 hour
After
CutOptim14m profile + 2 sheets
Waste7%
Planning time1 minute

Common metal materials

MaterialStandard sizesKerfTip
Mild steel sheet (S235/S275)2000×1000, 2500×1250, 3000×1500 mm1.5–3.0mm (saw), 0.2mm (laser)Choose kerf based on cutting method: saw, plasma, or laser
Stainless steel sheet (304/316)2000×1000, 2500×1250 mm0.2–0.5mm (laser), 2.0mm (plasma)Stainless is 3–5× more expensive — optimization has high ROI
Aluminum sheet (5052/6061)2000×1000, 2500×1250 mm0.2mm (laser), 3.0mm (saw)Lightweight but costly — offcut management is essential
Steel profiles (tubes, angles)Standard lengths: 6000, 6500, 12000 mm1.5–3.0mm (bandsaw/cold saw)Use 1D mode for all linear profile cutting
1D profile optimization
2D sheet optimization
Multiple materials per project
Cutting sequence generation
Offcut inventory
CSV import & PDF export
Engine API

Automate it — the Engine API

Cutting steel bars, aluminium profiles and tube is a 1D problem, and the same engine that runs here in your browser is available over HTTP. Your ERP or estimating software sends the bar list and the stock lengths as JSON, and gets back the optimized cut plan — bar count, yield and total length sawn — with no browser and no clicks.

  • Deterministic — the same request always returns the same cut plan, so quotes and audits are reproducible.
  • Free validation: POST /v1/validate/1d checks a job with no key and no quota.
  • Attach a meta object (your article number, order line) and it comes back on every placed cut.
  • Cutting irregular shapes on laser, plasma or waterjet? True-shape nesting is a separate endpoint — POST /v1/optimize/nest — packing arbitrary polygons into each other’s pockets. See the sheet-metal nesting API on the Engine hub.
POST /v1/optimize/1d
POST /v1/optimize/1d
{
  "parts": [
    { "length": 1200, "qty": 8, "meta": { "sku": "RHS-40x20" } },
    { "length": 2450, "qty": 4 }
  ],
  "stock": [{ "length": 6000, "qty": 50, "price": 18.4 }],
  "options": { "kerf": 3 }
}

Frequently asked questions

Can CutOptim handle both 1D profiles and 2D sheets in one project?+
Yes. CutOptim supports both 1D (linear cutting for tubes, bars, profiles) and 2D (panel cutting for sheets, plates) within a single project. Switch between modes using the mode toggle.
What kerf value should I use for laser cutting vs. plasma?+
Laser cutting typically has 0.1–0.3mm kerf depending on material thickness. Plasma cutting has 1.5–3.0mm kerf. Bandsaw cutting is 1.5–2.5mm. Always check your specific machine specifications.
How does CutOptim handle different material thicknesses?+
Create separate optimization runs (cuts) within your project for each material type and thickness. Each cut has its own stock sizes, kerf settings, and part list.
Can I export cutting plans for CNC machines?+
Yes. CutOptim Pro supports DXF export (AutoCAD R12 format), which can be directly imported into most CNC laser, plasma, and waterjet cutting machines.
Is CutOptim suitable for nesting irregular metal shapes?+
Yes, through the Engine API. True-shape nesting of irregular polygons — brackets, gussets, flanges, gaskets — is available at POST /v1/optimize/nest, for laser, plasma and waterjet, with per-sheet exclusion zones for defects or clamp areas. The CutOptim app itself still cuts rectangles (guillotine), so for irregular shapes today the nesting API is the route; a true-shape mode in the app is on the roadmap.
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