Welcome
Sign in to your account
Enter your email and we'll send a one-time code for instant access.
A 1,000-Tumbler Pricing Guide
If you run a laser engraving side hustle or small shop, sooner or later a customer will ask: "I have 1,000 tumblers, can you just engrave our logo on them?" It sounds like an easy win. The customer is supplying the tumblers, the design may be simple, and you're "just" engraving a logo. But a 1,000-unit order can quickly turn into hours of machine time, loading, positioning, inspection, and handling, and a small pricing mistake can wipe out your profit before you notice.
Customer-supplied blanks remove material cost, but they do not remove production cost. That distinction is at the center of this guide.
Questions like this come up frequently among laser engraving business owners, and the answers can vary dramatically. That variation highlights an important point: there is no universal price for bulk laser engraving. Your quote should be based on your actual production time, overhead, and target margin, not on a number you saw someone else quote once.
Quotes for a 1,000-unit, customer-supplied tumbler job can range from a couple dollars per piece to well over $20, and it is not because anyone is wrong. It comes down to a few variables that change the math every time:

1. Per-piece pricing. This is the simplest approach for the customer to understand, and it is what most hobbyists and small shops default to.
2. Hourly-rate pricing. More established operations calculate an hourly production cost that accounts for both the operator and the machine, then divide that by how many pieces they can realistically produce per hour, including load and unload time. This method protects you from underquoting jobs where the logo looks simple but the fixturing is slow.
These two methods don't have to compete with each other. A good per-piece price can simply be the result of your hourly-rate calculation, worked backward into a single number your customer can understand. That is exactly what the formula below does.
For customer-supplied products specifically, bulk engraving quotes can vary widely, from just a few dollars per piece for highly streamlined production to well over $15 for slower, more complex work. The important question is not whether your price matches someone else's. It's whether your price covers your actual cost and gives you the margin you need.
Hourly Production Cost = Labor Cost per Hour + Machine Overhead per Hour
This is your cost to keep the machine and operator running for one hour. It does not include profit. That comes in later, at Step 4, so your margin is applied only once.
Cycle Time = Load + Fixture + Engrave + Reposition + Unload + Basic Inspection
Time this on a real sample piece, not just the engraving time shown by your software. Fixturing a rotary job is often where the real cost hides. If you're engraving both sides, make sure repositioning is included in your cycle time—it is not free.
Production Cost = (Quantity × Cycle Time × Hourly Production Cost) + Setup Cost + Consumables/Packaging + Expected Scrap/Rework
Total Selling Price = Total Production Cost / (1 - Target Margin)
If you're not sure what margin to target, 20% to 40% can be a useful starting range for a simple pricing model, but your target should ultimately reflect your market, overhead, risk, and business goals.
Per-Unit Price = Total Selling Price / Quantity
Another useful metric to track: units per hour.
Units Per Hour = 60 / Cycle Time (in minutes)
This turns an abstract "cycle time matters" statement into something concrete: how many production hours a given order will actually eat up. You'll see why that matters in the examples below.

| If you know... | You can calculate... |
|---|---|
| Cycle time | Units per hour |
| Quantity + cycle time | Total production hours |
| Hourly production cost + cycle time + quantity | Production cost |
| Production cost + target margin | Total selling price |
| Total selling price + quantity | Per-unit price |
For illustration, we'll use a $60/hour production cost. Your actual number may be much higher or lower depending on your labor, equipment, overhead, and utilization.
| Input | Value |
|---|---|
| Hourly production cost | $60/hr |
| Cycle time per piece | 1.5 min (0.025 hr) |
| Units per hour | 40 |
| Total production hours (1,000 units) | 25 hours |
| Cycle-time cost (1,000 × 0.025 × $60) | $1,500 |
| Setup cost | $150 |
| Consumables/packaging ($0.30 × 1,000) | $300 |
| Total production cost | $1,950 |
| With a 30% target margin ($1,950 / 0.70) | $2,785.71 |
| Per-unit price | ≈ $2.79 |
Pricing tip: margin is not the same as markup. A 30% margin means profit represents 30% of the final selling price, which is why the calculation is $1,950 ÷ 0.70 rather than $1,950 × 1.30. Confusing the two is one of the most common ways small shops end up underpricing a job.
A simple, single-sided, high-volume design like this can land in the $2 to $3 per-piece range, not because that is a standard market rate, but because the $150 setup cost is spread across 1,000 units, while the $300 in consumables and packaging and the 25 hours of production time are already included in the calculation.
| Input | Value |
|---|---|
| Hourly production cost | $60/hr |
| Cycle time per piece (two sides, with repositioning) | 5 min (0.083 hr) |
| Units per hour | 12 |
| Total production hours (100 units) | ≈ 8.3 hours |
| Cycle-time cost (100 × 0.083 × $60) | $500 |
| Setup cost | $150 |
| Consumables/packaging ($0.50 × 100) | $50 |
| Total production cost | $700 |
| With a 40% target margin ($700 / 0.60) | $1,166.67 |
| Per-unit price | ≈ $11.67 |
This is already well above the simple example because the cycle time is much longer and the smaller order spreads the fixed setup cost across far fewer units. If you add expected scrap or rework on a more delicate design, rush handling, or a higher target margin for specialized work, the final selling price could move into the $15 to $25 range that can make sense for some detailed, lower-volume, two-sided jobs. The exact number should come from your own production data rather than a generic industry rate.
The formula stays the same in both examples. What changes is the economics of the job: cycle time, order quantity, setup burden, and the margin you need to make the work worthwhile.
Look again at Example 1. At 1.5 minutes per tumbler, 1,000 units require about 25 hours of production time. If you could reduce that cycle time to 1 minute, the same order would take about 16.7 hours instead. That frees up more than 8 hours of production capacity, time you could use for another order instead.
This is where equipment throughput stops being a technical specification and starts being a business decision. A faster production workflow can let you take on larger orders without simply adding more labor hours, or quote more competitively on jobs you might otherwise turn down.
A galvo laser paired with an efficient rotary setup can reduce engraving and handling time compared with slower workflows, especially on repeat cylindrical jobs like tumblers. If your formula consistently puts you above the price your market is willing to pay, it may be a sign that your production workflow, not your pricing strategy, is the bottleneck.

If you offer engraving as a service to your own customers, whether that's a side hustle, an Etsy shop, or a full storefront, you can put this formula to direct use in a few ways:
A quick note: the hourly rates, margins, and example prices in this article are illustrative, not industry standards. Actual pricing depends on your market, equipment, labor costs, overhead, production speed, order requirements, and target margin. Use the framework to build your own pricing model rather than treating these examples as a fixed price sheet.
Thinking about taking on larger engraving orders? Explore the em-smart Dual series to see how a high-speed galvo system and rotary workflow can help reduce cycle time and increase your production capacity.