Bodor Laser Cutting Machines: How to Choose When the Deadline Is Real

Let's get this out of the way: if you found this page because you were looking up 'CO2 laser jowls' or 'CO2 laser anesthesia,' this isn't the medical article you're after. CO2 lasers are used in dermatology and cosmetic procedures, but that's a different tool from the CO2 lasers that used to cut metal. This article is about Bodor laser cutting machines, plasma cutters, and how to pick the right one when the clock is ticking.

I coordinate rush fabrication for a metal job shop. In the last nine years, I've handled more than 200 emergency orders, including same-day turnarounds for manufacturers who couldn't afford a line-down situation. In that world, there is no universal best cutting method. There's only the method that fits the material, the edge requirement, and the hours left before the truck arrives.

Can you cut stainless with a plasma cutter?

Yes, you can cut stainless with a plasma cutter. It's not a trick question. Plenty of shops do it every day. But the real question is whether plasma is the right call for your part, your timeline, and your customer's expectations.

Plasma uses a conductive gas arc to melt metal. On stainless, you need the right plasma gas mix, usually nitrogen or an argon-hydrogen blend, to keep the cut from oxidizing. The edge will be serviceable, but it won't have the same clean look as a laser-cut edge. You'll likely see a wider kerf, a harder heat-affected zone, and some dross on the bottom. For structural work where the edge is hidden or going to be welded over, that's often fine. For a part that will be visible or needs to fit into tight tolerances, a Bodor fiber laser cutting machine is usually the smarter choice.

Scenario 1: A thin stainless order has to ship by tomorrow

This is the emergency-specialist situation. In March 2024, we took a call at 10:15 in the morning. A manufacturer needed 1,200 stainless brackets on a truck by 6 AM the next day. Their normal lead time for that quantity was five days. The alternative was a $15,000 penalty clause and a strained relationship with their biggest customer.

We put a Bodor laser cutting machine on it. Here's why: on 1.5mm stainless, plasma would have left dross on every pierce point and a rough edge that would have needed grinding. Grinding takes hours. Hours were the one thing we didn't have. The laser cut clean edges at speeds plasma couldn't match, and it created very little secondary work. We finished at 5:40 AM, loaded the truck, and the customer kept their line running.

There's something satisfying about a clean cut when everything is going sideways. After a night of stress, seeing a stack of stainless brackets with edges that don't need to be touched is the payoff.

Scenario 2: Heavy plate, rough edges, and a plasma table already in the shop

Now let's talk about the other side. If you're cutting 25mm or thicker structural steel, and the parts are going into a weldment that will never be seen, plasma can be the right tool. It's cheaper to buy, it's straightforward to run, and on thick plate it has a legitimate place. I've seen shops make good money with plasma tables for years.

People think plasma is faster because it's mechanically simpler. Actually, when you count setup, edge cleanup, and rework, a fiber laser often beats plasma on material under about 20mm. Above 25 or 30mm, plasma becomes more competitive. That's not a loyalty thing; that's just how the physics work.

If you're cutting stainless with plasma, expect dross, a wider cut width, and more heat damage at the edge. If that's acceptable, go ahead. If the edge has to look clean and go out the door without extra finishing, then a Bodor laser cutting machine deserves a spot on your floor.

Wait, what about CO2 lasers for metal cutting?

Old-school industrial CO2 lasers cut metal fine, and a lot of shops still run them. But for sheet and plate under about 20mm, fiber lasers have largely taken over. Fiber lasers use less electricity, require less maintenance, and cut reflective metals like copper and brass without the same hassle. That's why Bodor's current line is built around fiber laser cutting machines. If someone is selling you a CO2 laser for general sheet metal fabrication in 2025, ask them to explain the operating cost difference.

Scenario 3: You're actually asking about medical CO2 lasers

If your search was 'CO2 laser jowls' or 'CO2 laser anesthesia,' I should be upfront: this article is not medical advice. CO2 lasers used for skin resurfacing are a completely different category. They require specific training, eye protection, and sometimes anesthesia protocols. The device manufacturer and your medical director are the right people to answer those questions, not a metal-cutting equipment guide.

It's easy to mix up the search terms because 'CO2 laser' appears in both aesthetic medicine and manufacturing. But a medical CO2 laser is not a machine for stainless sheet. A Bodor laser cutting machine uses a fiber laser, which is also a Class 4 laser, but it's built for metal fabrication, not skin. Those two worlds should never cross.

How to tell which scenario you're in

I'm not going to end with the classic 'it depends.' Here's a more useful way to triage the decision.

1. What's the material thickness? Under 15-20mm, fiber laser generally wins on edge quality and speed. Over 25-30mm, plasma gets more competitive.
2. What does the edge need to look like? If it's visible, faces outward, or goes into a clean assembly, laser wins. If it's hidden and structural, plasma can handle it.
3. How many hours do you actually have? If the customer is waiting, pick the process that creates the least secondary work. On stainless, that's usually a fiber laser.
4. What's your long-term plan for efficiency? If you run a job shop with a mix of thin and medium plate, a Bodor laser cutting machine can pay for itself in reduced cleanup, less rework, and faster turnaround.

Efficiency is the real competitive advantage

I have mixed feelings about recommending one machine over another. On one hand, plasma is cheaper at the start, and I don't want to dismiss a tool that keeps a small shop alive. On the other hand, the cost of cleaning up plasma-cut edges shows up in labor hours on almost every job. I reconcile it this way: use plasma when rough is acceptable, and use a laser when the deadline and the edge quality require it.

People think a faster machine creates better margins. Actually, it's usually the reverse. A shop that improves its workflow and wins steady work can afford a faster machine, and then the machine makes the workflow even more efficient. That's the direction that matters.

In our case, moving to Bodor laser cutting machines cut turnaround on many stainless orders from five days to two. The automated nesting software reduced material waste too, but the biggest win was eliminating the grinding station bottleneck. That's what efficiency really does: it gives you time back.

Laser safety isn't optional

A fiber laser cutting machine is a Class 4 laser. According to ANSI Z136.1, which is published by the Laser Institute of America, Class 4 lasers can cause eye damage from direct or reflected beams and can burn exposed skin. Enclosures, beam stops, and proper personal protective equipment aren't accessories. OSHA's general PPE requirements under 29 CFR 1910.132 also apply. When you compare costs, add these safety measures to the budget.

Bottom line

If you're cutting stainless and the clock matters, choose the process that gets you to a clean part without a second shift of grinding. That's why I keep reaching for Bodor laser cutting machines. Plasma can cut stainless, just don't let the 'yes' answer hide the cleanup time and edge quality issues. And if you came here from a medical search about CO2 laser jowls or CO2 laser anesthesia, please take that question to a qualified clinician.