Laser Welding
Most Western Canadian fab shops shopping for a faster welding process aren't comparing laser welding to TIG. They're comparing it to MIG, because MIG is what's already running on the floor. It's the volume workhorse for structural steel, general fabrication, and repair work, and it earned that role honestly: it's fast to learn relative to TIG, it fills a joint quickly, and the equipment is cheap to own. A laser-vs-MIG comparison has to respect that, not wave it away. Here's where laser welding genuinely pulls ahead, where MIG still wins, and how to think about the trade-off for your shop.
Vantix's handheld laser welding platform runs roughly 4× faster than MIG or TIG on comparable joints, and operators are productive on it in days rather than months. That speed advantage comes from how the process works: a laser weld typically runs as a single, controlled pass with a narrow, precise heat source, rather than the multiple passes, weave patterns, and follow-up grinding that thicker or cosmetic MIG work often demands. On the kind of butt and lap welds that make up daily production in a structural steel or general fab shop, that difference compounds fast — more finished parts per shift, from the same floor and the same headcount.
This is where the two processes diverge the most. MIG is an arc process: it puts a comparatively large amount of heat into the base metal to sustain the arc and melt the wire, which is exactly what you want when you're filling a heavy joint but exactly what you don't want on thin sheet. Heavier heat input on light-gauge stock means a wider heat-affected zone, more warping, and more time spent clamping, tacking in sequence, or straightening parts afterward to keep them true.
Laser welding uses a much more concentrated, precise heat source. The weld pool is narrower and the surrounding material sees far less thermal load, which is why shops running sheet metal, enclosures, or thin structural components tend to see cleaner, straighter results with less post-weld correction. If your work skews toward thinner gauge material where warping is a recurring headache, this is usually the single biggest reason to look at laser welding at all.
MIG's ongoing cost profile is well understood: shielding gas cylinders, contact tips, nozzles, and liners all wear and need replacing, and gas flow runs continuously for the length of the weld. It's a manageable cost, but it's a recurring one that scales with how much wire you're putting down.
Vantix's handheld welder runs on a single-wire feeder standard, with dual-wire feed available as an option for higher-volume filler work. That's a lighter consumable footprint than continuous gas-shielded MIG welding in most shops, though exact gas and consumable requirements depend on your material and configuration, and that's worth confirming directly with your supplier rather than assuming a number.
Spatter is one of MIG's most persistent shop-floor costs. It's rarely dangerous, but it's constant: grinding it off, protecting adjacent surfaces, and factoring cleanup time into every job. Laser welding produces markedly less spatter by nature of the process, and Vantix's platform goes a step further with a 4-in-1 head that handles weld, clean, light cut, and seam-clean from the same handheld tool. That means the cleanup pass that used to be a separate step, with separate equipment, can often happen with the tool already in the operator's hand.
MIG's learning curve is real but shorter than TIG's, since the wire feeds automatically and the operator isn't manually controlling a filler rod. What MIG still demands is consistent gun angle, travel speed, and weave technique across a range of joint types and positions, which takes real shop-floor repetition to master, especially on out-of-position and cosmetic welds.
Laser welding asks for a narrower, more mechanically simple skill: consistent travel speed and a steady stand-off distance between the gun head and the workpiece. That's a skill a supervisor can watch, demonstrate, and correct in real time, which is a large part of why Vantix operators reach solid, repeatable production welds in days rather than the months a shop typically budgets for a new MIG or TIG hire to become fully trusted on structural work.
None of the above makes MIG obsolete, and treating it that way would be dishonest. There are jobs where MIG remains the better tool, and a shop that replaces it everywhere will feel the gap.
| Factor | Laser Welding (Vantix) | MIG |
|---|---|---|
| Travel speed | Roughly 4× faster than MIG/TIG on comparable joints | Slower; often needs multiple passes on thicker joints |
| Heat input on thin sheet | Narrow, precise heat source; less warping | Higher heat input; more distortion risk on light gauge |
| Spatter and cleanup | Minimal spatter; 4-in-1 head includes clean and seam-clean modes | Spatter is routine; separate grinding and cleanup pass |
| Wire feed | Single-wire standard, dual-wire optional | Continuous wire feed with shielding gas |
| Training time | Days, for standard production seams | Weeks to months for full positional competence |
| Max weld thickness | Up to 10 mm at 3 kW | Well-suited to thick, multi-pass structural fill |
| Field and outdoor work | Best suited to a controlled shop environment | More tolerant of wind and site conditions |
| Equipment entry cost | Starts from $32,000 CAD | Lower up-front equipment cost |
Neither, universally. Most Western Canadian shops that add laser welding don't retire their MIG stations, they change which jobs go where. Thin-to-mid gauge production work, precision joints, and anything where a skilled-welder shortage is capping your output are exactly the jobs laser welding is built to take off a stretched crew's plate, at a fraction of the training time of a new MIG or TIG hire. Thick structural fill, high-volume deposition, and field welding away from a controlled shop stay MIG's territory, at least for now.
The honest way to make this decision is to look at your own job mix rather than pick a side. If a meaningful share of your work is thin-gauge, precision, or bottlenecked by how many trained welders you can find, that's the work worth moving to laser first.
Numbers on a page only tell you so much. Book a demo and bring the joints you actually run, we'll show you where laser welding earns its speed and where MIG still makes more sense for your shop.
Stainless steel, carbon steel and galvanized steel, plus aluminum. Copper and brass are supported at 3 kW.
The low heat input also makes the process practical in places conventional welding struggles: near heat-sensitive components, on thin-to-thick joints, and on finished or coated assemblies where distortion would be visible.
Operators reach working proficiency in days. TIG takes months.
That difference is the main reason shops buy the technology. It separates welding capacity from the supply of certified welders, so you can add output without competing for a labour pool that is not growing.
Results are also more consistent between operators, because much less of the outcome depends on hand technique. That tends to matter most on repeat production work, where variation between welders shows up as variation in the finished product.
Handheld laser welding runs about 4 times faster than MIG or TIG on comparable joints.
The speed comes from a concentrated energy source and much lower heat input. The lower heat input is arguably the bigger effect: less distortion on thin sheet means less post-weld straightening, and cleaner welds mean less grinding and polishing.
On thin stainless the finishing time saved is often larger than the welding time saved, which is why a straight arc-time comparison usually understates the difference.
The handheld head runs four modes: weld, clean, light cut and seam-clean.
The cleaning modes matter more than they sound. Pre-weld cleaning and post-weld seam cleaning are normally separate operations with separate equipment, so doing them with the same head means the part does not move between stations and the operator does not change tools between steps.
Single-wire feed is standard, with dual-wire available as an option.
Single-pass capability is up to 0.24 in (6 mm) at 1.5 kW, up to 0.31 in (8 mm) at 2 kW, and up to 0.39 in (10 mm) at 3 kW.
Most shops buy on the joints they run every day rather than the thickest joint they can imagine. Laser welding's advantage is largest on thinner material, where conventional heat input causes the distortion that forces straightening and rework, so sizing up for an occasional heavy joint often buys capability in the wrong place.
Vantix handheld laser welders are available air-cooled in 1.5, 2 and 3 kW, and water-cooled in 2 and 3 kW.
Cooling type is a separate decision from power. Air-cooled units are lighter and easier to move around a shop or between sites; water-cooled units are built for sustained high-duty-cycle production. The deciding question is usually how much of the shift the welder is actually running, not how thick the material is.
Both configurations ship with the same 4-in-1 multi-function head.
