
Cutting time. This is the single largest cost driver. The longer a part takes to cut, the higher the cost. Cutting time depends on material type, material thickness, and part complexity—more complex geometries with many internal cutouts take longer to process.
Material utilization. Material cost is typically the second largest component. How efficiently parts are arranged on the sheet directly affects material waste. Poor nesting can waste 20‑30% of the material, and that waste is passed on to you.
Set‑up and programming. CNC programming, tooling selection, and machine setup are required for every job. These costs are spread across the total order quantity. For small batches, setup costs significantly impact per‑part pricing.
Assist gas consumption. The type and amount of assist gas used affects operating cost. Nitrogen cutting, while producing cleaner edges, costs more than oxygen or compressed air.
Labor and overhead. Machine operation, quality inspection, and facility costs are included in the hourly rate. High‑efficiency machines with automated material handling reduce labor cost per part.

Material thickness. Thicker materials require slower cutting speeds and multiple passes, dramatically increasing cutting time. A 1mm part may take seconds to cut; a 10mm part may take minutes.
Part complexity. A simple rectangular blank cuts quickly. A part with numerous holes, slots, and internal contours takes much longer. Every additional feature adds cutting time.
Part geometry. Parts with many small features require more pierces, which adds time. Each pierce is a separate operation that takes time and consumes consumables.
Nesting efficiency. How parts are arranged on the sheet affects how many parts can be cut per sheet—and how long the cutting process takes.
Optimize your design. Simplifying part geometry reduces cutting time. Fewer holes, larger radii, and simpler contours mean faster cutting. If your part doesn't need a complex feature, simplify it.
Use standard material thicknesses. Stock materials are readily available and cost less than special‑order thicknesses. Standardization also simplifies nesting and reduces waste.
Choose the right assist gas. For parts where edge quality is not critical, compressed air or oxygen cutting can be more economical than nitrogen. For visible surfaces, nitrogen may be worth the extra cost.
Order the right quantity. Larger batches spread setup costs across more parts, reducing per‑part cost. If you consistently order small quantities, consider consolidating orders to achieve better economies of scale.
Combine parts in the same material. If you have multiple parts in the same material and thickness, nesting them together improves material utilization and reduces per‑part cost.
Work with an integrated supplier. When a supplier handles cutting, bending, welding, and finishing in‑house, the coordination costs are eliminated. This typically reduces total project costs by 15‑20%.
Prototypes and low‑volume production. With no tooling costs, laser cutting is ideal for prototypes and small batches (1‑500 parts). The zero‑tooling setup makes it highly flexible.
Parts with complex geometries. Complex shapes, intricate cutouts, and parts with many features are more cost‑effective with laser cutting than with stamping.
Frequent design changes. When designs are still evolving, laser cutting’s zero‑tooling setup allows unlimited design iterations without additional tooling costs.
Multiple material types. Laser cutting handles stainless steel, aluminum, carbon steel, and other materials with the same machine—no tooling changes required between materials.
| Factor | Laser Cutting | Stamping | Waterjet |
|---|---|---|---|
| Tooling cost | None | High | None |
| Per-part cost | Moderate | Low (high volume) | Moderate |
| Setup time | Minimal | Extensive | Minimal |
| Complexity | Excellent | Limited by tooling | Excellent |
| Material waste | Low to moderate | Low | Moderate |
| Ideal volume | 1–5,000 parts | 10,000+ parts | 1–1,000 parts |
Laser cutting — High‑precision fiber laser cutting with optimized nesting for maximum material utilization.
CNC bending — Precision bending with consistent accuracy and springback compensation.
Laser welding — High‑speed, low‑distortion welding with minimal heat input.
Sheet metal fabrication — Complete assembly, surface treatment, and fastener installation.
ISO 9001, ISO 14001, and TÜV CE certified.
Full material traceability with Mill Test Certificates.
Before placing your next order, review this checklist:
| What to Check | What to Consider |
|---|---|
| Part complexity | Can geometry be simplified to reduce cutting time? |
| Material thickness | Is standard thickness being used? |
| Material type | Is the most cost-effective material specified? |
| Assist gas | Is nitrogen necessary, or can air or oxygen be used? |
| Order quantity | Is the quantity optimized to spread setup costs? |
| Supplier integration | Does your supplier handle all processes in-house? |
