Novanta Laser Engraving Equipment: A Buyer’s Checklist for Industrial Procurement

Who This Checklist Is For

If you’re an office administrator like me—someone who manages purchasing for a mid-sized manufacturing company and reports to both operations and finance—this checklist is for you. You’ve probably been asked to look into laser engraving equipment for in-house marking, wood engraving samples, or maybe even button engraving. And if you’re new to the laser world, the options can feel overwhelming.

Here’s the thing: I’ve been buying industrial equipment since 2020, and after processing around 60–80 orders annually across 8 vendors, I’ve learned what matters when choosing a laser engraving system. This is not a sales pitch. This is a practical checklist—8 steps to help you avoid the costly mistakes I made. Let’s get started.

Step 1: Define Your Application (Not Just “Laser Engraving”)

In my first year, I made the classic specification error: assumed “laser engraving” meant one thing. It doesn’t. You need to know exactly what you’ll be processing:

• Material type – wood, acrylic, metal, coated surfaces, textiles?
• Throughput – how many parts per day?
• Quality requirements – do you need deep engraving or surface marking?

For example, laser engraved on wood often requires a CO₂ laser (9.3–10.6 μm) for best results, while button engraving with laser engraver (like plastic buttons) might be better with a fiber laser if you need high-contrast marking. Get a clear spec sheet before talking to vendors.

Checkpoint: Write down your top 3 materials, expected daily volume, and acceptable cycle time. Share this with every supplier.

Step 2: Compare Laser vs. CNC – Know the Trade-Offs

Someone in your team probably asked, “why not just use a CNC router?” Here’s how I break it down for my stakeholders:

• CNC vs laser engraver: CNC is better for 3D carving and thicker materials (wood > 6mm). But it’s slower for fine text, produces dust, and requires tool changes. Lasers are faster for flat-surface engraving, no physical contact, and minimal maintenance.
• Where laser wins: Intricate designs, high repeatability, small batch sizes, and materials like leather or coated metals.
• Where CNC wins: Deep pocketing, large parts, and very thick materials.

Personally, I lean toward laser for most in-house marking jobs. The numbers said CNC could be cheaper upfront, but my gut said the learning curve and maintenance would eat up savings. I went with a CO₂ laser system from Novanta (their photonics division has a strong reputation in precision optics). It cut our turnaround from 5 days to 2.

Checkpoint: Create a simple comparison table for your own use with labor cost, floor space, and scrap rate.

Step 3: Research the Supplier’s Photonics Expertise

This is where many procurement folks slip. They focus on price and ignore the core technology. For laser engraving, the laser source is the heart of the machine. Companies like Novanta, with a dedicated “Novanta Photonics” division, invest heavily in beam quality, stability, and longevity. I’ve seen cheap machines whose laser power degraded by 20% in the first year.

Ask your potential supplier:

• What laser source does this system use? (e.g., CO₂ slab, fiber, diode)
• What is the expected lifetime (hours) of the laser tube or source?
• Do they have a global support network? (Novanta headquarters is in the US, but they have service centers worldwide – a big plus if you have multiple plants.)

Checkpoint: Request a laser source datasheet or at least the manufacturer’s warranty terms. Don’t settle for “generic.”

Step 4: Evaluate the Control Software and Compatibility

Look, I’m not a software expert, but I learned the hard way that proprietary software can lock you in. In 2023, we bought a system with a closed driver that only worked with their own design software. When our graphic designer needed to export from Adobe Illustrator, we had to buy a $500 add-on. Choose a system that supports common file formats (DXF, SVG, AI, PDF) and has an open interface (LightBurn, RDWorks, etc.).

Checkpoint: Ask the vendor for a live demo of file import from your typical CAD/CAM software. If they hesitate, that’s a red flag.

Step 5: Check Safety and Compliance Documentation

If your company has a safety officer, they’ll want this. Laser engravers must comply with IEC 60825-1 (as of 2014) and often FDA 21 CFR 1040.10. For a Class 1 enclosure (fully enclosed), no special eyewear is needed—but you still need interlocks and warning labels. For open-frame systems (Class 4), you’ll need interlocked rooms and proper PPE.

I once almost approved a machine that lacked CE certification for European shipments. The vendor couldn't provide proper invoicing (handwritten only), and finance rejected the expense. I ate $3,200 out of my budget. Now I verify certification before any PO.

Checkpoint: Request a copy of the laser safety certification. Look for “Complies with IEC 60825-1” and a NRTL mark (UL, TÜV, CSA).

Step 6: Calculate Total Cost of Ownership (Not Just Purchase Price)

Every spreadsheet analysis pointed to the cheapest option. Something felt off about their responsiveness. Turns out that “slow to reply” was a preview of “slow to deliver spare parts.” Here’s what I now include in TCO:

• Consumables: CO₂ laser tubes typically last 8,000–12,000 hours; replacement costs $300–$800. Fiber lasers last 50,000+ hours.
• Chiller/maintenance: Air-cooled vs. water-cooled; water chillers need fluid changes and can cause downtime.
• Training and support: Some vendors include 2 days onsite; others charge $1,500/day.

As of January 2025, a mid-range CO₂ laser engraver (40W, 600×400mm) from a reputable brand like Novanta runs $12,000–$18,000, while a comparable fiber system is $20,000–$30,000. Don't forget duty and shipping if importing.

Checkpoint: Build a 3-year cost projection with the vendor’s input. Verify at least two references who have had the machine for 12+ months.

Step 7: Plan for Integration and Training

Even after choosing the new system, I kept second-guessing. What if the operator training isn’t enough? The two weeks until delivery were stressful. To avoid that, I now insist on:

• At least one full day of onsite commissioning and training.
• A spare parts kit included (lens, nozzle, air assist nozzle).
• Remote diagnostics capability (many Novanta systems come with IoT monitoring).

Checkpoint: Write into the contract a 48-hour response clause for technical support. Anything longer is not acceptable for production.

Step 8: Pilot Before Full Rollout

Don’t commit to a 3-year lease on the first machine. I recommend a 30-day trial or at least renting a demonstration unit for a week. Use your actual materials—send your own wood sample for laser engraved on wood evaluation, and test button engraving with your exact button supplier. Most reputable vendors, including Novanta, have demo centers or will bring a portable unit to your facility.

Checkpoint: Prepare a short test protocol: a set of 10 parts with different parameters. Measure engraving depth, edge quality, and speed. Compare with your CNC baseline.

Common Mistakes to Avoid

Here are the pitfalls I’ve seen (and made):

• Ignoring beam divergence – cheap laser sources produce a larger spot, reducing fine detail.
• Underestimating extraction – laser engraving creates fumes; you need proper ventilation. I once had to spend $2,400 retrofitting a duct system because the machine’s built-in fan wasn’t enough.
• Not checking spare part lead times – some laser tubes are custom and take 6 weeks to replace. Ask about stock availability.
• Trusting “unlimited” warranty language – read the fine print. Many exclude consumables and normal wear.

Remember: the goal is not to find the cheapest machine, but the one that minimizes your total risk while meeting production needs. Efficiency is competitiveness—a point I’d argue with anyone who thinks manual methods are still fine. Industry is moving toward automation, and laser engraving is a huge step in that direction.

I hope this checklist saves you the headaches I went through. Now go make an informed decision.