Fiber-laser machine time is commonly about $80 to $150 per hour, and a real part charge also adds sheet material, assist gas, setup, programming, handling, scrap, and margin. That's why an hourly rate alone won't tell you whether a job makes money.

Two brackets can share the same outside dimensions and still price far apart. One nests cleanly and cuts in seconds, while the other carries dozens of pierces, poor sheet yield, nitrogen gas, and a setup spread over a single piece. If you're quoting sheet metal work, price the full stack, not the meter running while the beam is on.

Table of Contents

• What Laser Cutting Charges Usually Include

  • The rows that make the invoice

• How Shops Turn a Drawing into a Price

  • Why catalog speed undercharges the job

  • Build the burdened rate first

• Thickness Gas and Why Time Jumps

  • Gas is a second meter

• Why Matching Outlines Still Price Apart

  • Kerf changes size and spacing

• When Setup and Minimums Set the Price

  • Amortization is not a discount

• Sample Jobs and the Pre-Send Check

  • Price what the laser does not finish

  • Run this check before you send

What Laser Cutting Charges Usually Include

A laser quote usually combines machine time, material, setup, handling, gas, and any added operations. Published fiber-laser machine rates commonly run $80 to $150 per hour. HF Laser's laser cutting cost guide gives a broader range of $100 to $250 per hour, depending on laser power, regional labor costs, and shop economics. The hourly rate is only one input: a cheap rate can still produce an expensive part when yield is poor or setup is spread across a small order.

A shop comparing rates alone can miss that difference. A simple, repeatable part may use little beam time per piece, while a one-off with tight features, poor nesting, or added operations needs more of the shop's time and resources.

The rows that make the invoice

The LaserCut Parts FAQ gives a typical breakdown of about 50% cutting time, 40% material, and 10% setup. Treat those shares as a rough check, not a pricing formula. Thickness, sheet yield, and quantity shift the mix.

Use the rows as a quote checklist. Machine time covers the laser while it cuts. Sheet or plate should account for the material consumed, including skeleton scrap. Assist gas, programming and nesting, and load and unload labor each need a place in the price, even when you bundle them for the customer.

Bending, welding, CNC milling, deburring, plating, and powder coating are separate operations, each with its own setup, labor, and risk. Combining them with laser time can hide which step is eroding the margin.

Before sending a low quote, check which costs it includes. The guide to estimating material cost explains how to account for sheet, yield, and scrap separately from machine time. Compare the full job price, not just the hourly rates.

How Shops Turn a Drawing into a Price

Price a drawing with a time and resource equation, not a flat cents per inch guess. The MfgCalcs laser cutting throughput guide states the model as estimated cost = machine time × shop rate + assist-gas cost + programming/nesting allocation + loading/unloading labor. That structure forces you to count what the job consumes.

Run the benchmark. A 1,200 mm cut path at 4,000 mm/min takes 0.30 minutes of pure travel, which is $0.60 at $120 per hour. That $0.60 still excludes pierces, acceleration, repositioning, gas, labor, and overhead. It's a floor, not a quote.

A 2 mm mild steel bracket tells the same story from the shop floor. With 1,200 mm of cut, eight pierces, and about 24 seconds on the beam, the cutting time comes to about $0.60 at $90 per hour. Sheet, setup, scrap, finishing, and margin still have to be added before the part has a real price.

Why catalog speed undercharges the job

Length divided by posted feed assumes the head runs at full speed from start to finish. It doesn't. Every pierce is a stop, sharp corners force the head to slow down, and short segments between holes may never reach the listed feed rate. Dense, busy geometry takes longer than its contour length suggests.

Price cutting, piercing, and non-cut motion as separate buckets. A single rate per inch undercharges thick plate and busy parts, and it can overcharge simple thin sheet.

Capture these inputs before a number leaves your desk:

• Machine inputs: laser power and that machine's burdened hourly rate

• Material inputs: grade and thickness

• Geometry inputs: total contour length, pierce count, and feature density

• Job inputs: batch quantity and setup minutes

Our walkthrough on reviewing engineering drawings shows how to pull those inputs off a print before you estimate. If you want a broader shop view, you can compare manufacturing process optimization outcomes to see where quoting discipline fits alongside other process gains.

Build the burdened rate first

Derive your shop rate before you use it. Total the laser's annual cost first, including depreciation, electricity, assist gas, maintenance, nozzles and lenses, floor space, and the operator share. Divide by realistic billable hours, not nameplate hours, because a machine cutting half the day must recover its cost in half the time.

Put loading and unloading labor on its own line. Apply markup last, after the costs are in. Then run the equation on one finished part, compare it with your quote history, and fix the rate before you trust it on every RFQ.

Thickness Gas and Why Time Jumps

A six-millimeter stainless cut can take about 70 times longer per meter than a thin-sheet cut. In the Thunder Laser stainless steel settings guide, a 1,500 W fiber laser cutting 304 stainless with compressed air runs at about 35 m/min through material 0.5 to 1.0 mm thick, compared with 0.5 m/min at 6 mm. The listed settings use 100% power and roughly 10 to 15 bar of gas pressure. Mild steel cuts faster than stainless at the same thickness, but speed still falls steeply as either material gets thicker.

Gas is a second meter

Assist gas adds a consumable cost alongside cutting time. Nitrogen can produce a bright, oxide-free edge, while high-pressure use adds expense. Oxygen on carbon steel generally costs less, but leaves an oxidized edge that may need cleanup before welding or painting. Include that cleanup when the customer expects a finished edge.

Machine investment also shapes the rate for thick plate. Bystronic's overview of high-power lasers estimates a 30-kilowatt laser system at about €850,000, compared with roughly €155,000 for a 300-amp plasma system. It describes lasers as competitive for sheet up to approximately 20 to 30 mm. For thicker material, compare plasma before committing to a laser quote.

Use a consistent estimating routine:

1. Maintain speed tables: Set cutting speeds by machine, material, and thickness.

2. Price gas separately: Account for gas type, pressure, and running cost.

3. Allow for cut conditions: Dense nests and frequent pierces can slow the job.

4. State the assumptions: Put gas type, pressure, and edge requirements on the quote so changes can be repriced.

Why Matching Outlines Still Price Apart

Take two brackets with the same outside profile. One has four holes and nests in tight rows. The other has a pattern of small slots, engraved text, and contours that can't share an edge. They'll look like the same job on a quote sheet that only records blank size, and the second one will lose money.

Cost follows every internal hole, every pierce start, and every rapid move between features. Engraving adds beam time without adding cut length you can see on a perimeter. Separate contours need their own starts, their own travel, and their own spacing on the sheet.

Material yield is the other hidden bill. A poor nest burns extra sheets even when the finished part area never changes. You're buying the whole sheet, so quote the sheets consumed, not the weight that ships.

Kerf changes size and spacing

Kerf is the material the beam removes, and it changes both feature size and nest layout. The Fabcon laser cutting tolerance guide puts typical sheet metal kerf at about 0.1 to 0.4 mm, with published ranges extending to approximately 0.08 to 0.45 mm depending on alloy, thickness, power, focus, nozzle, and assist gas settings. A drawn tab comes out roughly one kerf narrower, while a slot cut to nominal width comes out roughly one kerf wider. CAM normally offsets the path by half the measured kerf.

Don't trust one universal kerf value. Measure it for the material and setup in front of you, then prove the offset on a first article. A wrong offset is cheap to fix in CAM and expensive after a full sheet is cut.

Layout rules from the Fabcon chassis fabrication guide add spacing that directly changes yield, including 1 to 2 mm between adjacent parts and 2 to 5 mm from the sheet edge.

A CAD revision can lower laser cutting charges without changing overall dimensions. Shared edges, fewer tiny holes, less engraving, or a layout that fits more parts per sheet all cut cost. The cheap design is the one with fewer pierces and less scrap, not necessarily the shortest outside edge.

When Setup and Minimums Set the Price

Two identical brackets can have very different unit prices at quantities of one and one hundred. Cutting time per part changes little, but the first piece carries file review, programming, nesting, loading, and calibration. Spread that work across a batch and the per-part setup charge falls.

Published minimums show how shops account for fixed work. The American Laser Co. cost guide describes one provider with a $65 project minimum and another with a $25 minimum for the first material and $15 for additional materials. These charges cover work that a short cutting cycle cannot pay for on its own.

Amortization is not a discount

Divide setup cost across the order, and the unit price drops because each part carries a smaller share of the same work. That is cost allocation, not a concession. It also helps answer when a small order starts to price like production.

Break-even check: Divide setup minutes by quantity, then add cutting time and material per part. As the setup share shrinks, the unit price moves closer to a production rate.

Combining parts helps when they share material, thickness, and finishing. Different grades can require sheet changes and separate minimums. Forming and coating also bring their own setup, handling, and queue time.

Quotes that leave out the minimum, handling, or a second setup can win the purchase order and still lose money on every piece. Keep recurring charges such as cutting, gas, and material separate from quantity-sensitive costs such as programming, nesting, and the first load.

That breakdown makes revisions easier to explain. If a customer reduces the quantity from 100 to 10, the unit price rises because fewer parts share the setup cost. The guide to setup costs on short runs explains how to show those charges clearly. State the minimum before the job is approved, rather than absorbing it after.

Sample Jobs and the Pre-Send Check

Rules turn into dollars when you run them against familiar work. These three jobs use the same basic laser, yet each one gets its price from a different place.

Job A is the production bracket. You quote 100 pieces in 2 mm mild steel at about $0.60 of cutting time each at $90 per hour. Size the sheet after kerf and part gaps, spread one setup across the run, and add a light deburr. Sheet yield and the shared setup decide whether this job makes money, because the beam time is already small. If the nest wastes a sheet, the margin goes with it.

Job B is the same bracket at quantity one. Beam time is still measured in cents, but a $25 to $65 minimum plus programming sets the invoice. Quoting it at a production unit price gives the customer your programming desk for free. Show the minimum plainly and suggest ordering spares with the batch if the customer will need them.

Job C is a busy stainless plate. In 6 mm 304 with nitrogen and a dense hole pattern, speed falls toward the slow end of the stainless range and gas minutes stack onto every contour. Each hole adds a pierce, each pierce adds time, and the bright edge requirement keeps the expensive gas flowing. This is the job a per inch rate misprices worst.

Price what the laser does not finish

The laser hands you a flat blank, not a finished part. Tolerance targets change once the part leaves the table, and Geomiq's sheet metal design guide lists typical targets of ±0.4 mm for formed bends, ±0.2 mm from a bend to a hole or feature, ±0.1 mm for linear dimensions away from bends, ±0.06 mm for insert diameters, ±2 degrees for angularity, and 3.2 micrometres for surface roughness. Hold the laser to its own tolerance, then price the brake work to what forming can hold.

Give every downstream step its own line. Brake setup and bend labor are one operation. Deburring is another, priced by handling time and edge length. Masking, plating, and powder coat each carry labor, vendor cost, and rework risk, and inspection belongs on the quote whenever the drawing calls out tight features. CNC milling gets priced as spindle time on the mill, never folded into the laser hour.

Run this check before you send

1. Confirm the spec: lock material grade, thickness, and edge requirement before you estimate.

2. Count the geometry: record total contour length and pierce count, not just outside size.

3. Nest before you price material: apply your measured kerf and part gaps, then price the sheets used, scrap included.

4. Test quantity against the minimum: show setup on its own line so one-offs don't ride on production rates.

5. Add every later operation: forming, CNC milling, deburring, finishing, and inspection each get time and markup.

6. Save your assumptions: keep gas, speed, and yield notes with the quote so a revision reprices the full stack instead of starting over.

Uptool can carry that workflow by automating estimated material and finishing costs plus simple internal processes, while you still provide time estimates for steps such as setup, programming, and CNC milling. It applies your rates and markup, and it takes shops from 20 minutes to 2 minutes per part for quoting. I'd run the check on one live RFQ first, confirm the numbers against a job you know, then use the free trial on your next RFQ if quoting is the bottleneck.

If laser cutting charges keep coming back to reprice, visit Uptool and run your next RFQ through a workflow that separates material, finishing, setup, and markup instead of hiding them in one rate. Bring a real drawing with quantities and secondary operations, check the quote against a job you already trust, and use the free trial to see whether faster, fuller quotes help you win work without giving away margin.