Call us: 1-800-927-5107 647-494-7800 ext. 1008

How Laser Welding Lowers Aluminum Welding Labor Costs

A skilled aluminum TIG welder is one of the harder people to hire in a sign shop right now, and one of the more expensive. That's the real labor-cost problem behind aluminum channel letters. It has less to do with welding speed and more to do with how scarce, and expensive, a genuinely qualified welder has become.

Laser welding changes who is able to do that job.

The training claim, stated carefully

With about four hours of hands-on Ascent training, many dependable production employees, even those with no previous welding experience, can learn to produce acceptable welds on common thin-aluminum sign components, using approved settings, fixtures, and proper supervision.

That's a narrower claim than "anyone can weld," on purpose. Four hours covers learning basic operation on predefined sign components. It doesn't cover full laser-safety training, welder certification, or qualification for every joint and material combination a shop might encounter. Training time will also vary by operator and application.

Why the laser process is easier to learn

Traditional aluminum TIG welding asks the operator to coordinate the torch, the filler wire, and often a foot-pedal amperage control, all while continuously judging the molten weld pool by eye. Thin aluminum makes this harder, since it conducts heat quickly and can distort or burn through with very little warning.

The Ascent laser welder removes several of those variables from the operator's hands:

  • Approved parameters can be preset for the material and thickness
  • The wobble head produces a controlled, consistent seam
  • The operator mainly controls torch position, angle, and travel speed
  • Less heat transfers into the surrounding material
  • The process demands less simultaneous hand-and-foot coordination
  • Repeatable sign components can be welded using established settings and fixtures

That's why a dependable production employee can pick up the fundamentals much faster than someone working toward becoming a skilled aluminum TIG welder: there's simply less to master before the results are usable.

What this actually costs, in dollars

Wage data makes the underlying economics concrete. A dependable production worker and a highly skilled aluminum TIG welder aren't paid the same, and the gap is large enough to change how a shop should staff aluminum welding.

Factor Dependable production worker Highly skilled aluminum TIG welder
Typical wage$17–$20/hour$30–$40/hour
Estimated loaded employer cost$24–$28/hour$42–$55/hour
Previous welding experienceNot requiredSeveral years, commonly
TIG hand coordinationNot developedHighly developed
Process variables managed manuallyLimitedHeat, arc length, torch angle, filler, and travel speed
Best suited toRepetitive, predefined sign componentsBroad fabrication and demanding custom welds

That loaded-cost gap, roughly $14 to $27 per hour, works out to $28,000 to $54,000 a year over 2,000 paid hours. According to the Bureau of Labor Statistics, the national median wage for welders, cutters, solderers, and brazers is about $25.84 per hour, and the highest-paid 10% earn above roughly $37.27 per hour. Specialized aluminum TIG welders can command more than that depending on certification, location, and industry.

Reducing labor cost means changing who does the job

The savings come from staffing the job differently: a shop no longer needs a highly paid specialist for the aluminum components that make up most of its channel-letter volume. A dependable production employee, trained for a few hours on the Ascent system, can take on that repetitive work, while the shop's skilled welder, if it has one, stays available for the custom and structural jobs that actually require that level of experience.

That distinction matters for how a shop should think about staffing. It's a labor-cost problem solved by reassigning the task, and nobody involved has to take a pay cut for it to work.

For a closer look at what laser welding changes versus TIG and MIG on the shop floor, see how it compares to TIG welding for channel letters, or check the full specs on the Ascent refrigeration laser welder page.

← All articles
More from Ascent

Related articles

How to Improve Productivity and Quality in Sign Manufacturing
How to Improve Productivity and Quality in Sign Manufacturing
A practical guide to standardizing engineering, materials, equipment, and production in sign manufacturing, without losing the flexibility custom work requires.
Channel Letter Sign Business Startup Costs and ROI Guide
Channel Letter Sign Business Startup Costs and ROI Guide
A practical guide to starting a channel-letter sign business — core equipment costs, real production capacity, and how to estimate your payback period.
Ascent 2000W Handheld Fiber Laser Welder: Complete Overview
Ascent 2000W Handheld Fiber Laser Welder: Complete Overview
A complete look at the Ascent 2000W Handheld Fiber Laser Welder — refrigeration cooling, wobble-head welding, torch weight, and everything included.
Best Handheld Laser Welder for Sign Shops: A Buyer’s Guide
Best Handheld Laser Welder for Sign Shops: A Buyer’s Guide
What to look for in a handheld laser welder for sign shops and channel letters: power, cooling, wire feeder, torch weight, and warranty compared.
Why Choose Ascent Channel Letter Bending Machines
Why Choose Ascent Channel Letter Bending Machines
Why the sticker price of one premium bending machine doesn't tell the whole story — what two specialized Ascent machines cost and cover instead.
True Trimless Channel Letters: Ascent vs. the Competition
True Trimless Channel Letters: Ascent vs. the Competition
How Ascent's true front-lit trimless channel letters differ from adhesive-bonded, edge-lit systems that other manufacturers also market as trimless.
QCW vs. CW Tabletop Fiber Laser Welders: Which Is Safer?
QCW vs. CW Tabletop Fiber Laser Welders: Which Is Safer?
QCW pulsed lasers reduce heat, distortion, and burn-through on thin aluminum and stainless letters versus CW — but both remain Class 4 laser hazards.
Ascent TMB-3 Aluminum Trim vs. Ascent 5AS F-Trim
Ascent TMB-3 Aluminum Trim vs. Ascent 5AS F-Trim
Ascent TMB-3 forms economical flat aluminum coil with PVC backing into trim-cap-style trim. Ascent 5AS processes a premium F-trim profile requiring polycarbonate.
How to Set Up a Laser Welding Workstation
How to Set Up a Laser Welding Workstation
A setup guide for handheld laser welding stations — table height, fixturing, fume extraction, safety zone layout, and cable management.
How to Train a Channel Letter Fabricator
How to Train a Channel Letter Fabricator
Labor is the #1 cost in channel letter production. A guide to hiring the right person and realistic timelines for each machine in the workflow.
Laser Welder Fit-Up and Gap Control
Laser Welder Fit-Up and Gap Control
A gap between welded parts isn't just a defect — it's a beam transmission hazard. How to achieve proper fit-up and fixture parts correctly.
Materials That Block a 1070nm Fiber Laser Beam
Materials That Block a 1070nm Fiber Laser Beam
Not every material stops a fiber laser beam. Which flexible and rigid materials absorb or reflect 1070nm energy, and how to use them safely.
Laser Welder vs. MIG and TIG: Convincing Your Welder
Laser Welder vs. MIG and TIG: Convincing Your Welder
An experienced welder's skepticism about switching to laser is rational. How to address it honestly — performance, safety, and the close.
How to Make a Channel Letter — The Ascent Way with Ascent TMB-3
How to Make a Channel Letter — The Ascent Way with Ascent TMB-3
A step-by-step walkthrough of building a channel letter with the Ascent CNC Router, Ascent TMB-3, and Stapler — including how Ascent TMB-3 saves 20–50% on material.
How to Make a Channel Letter — The Ascent Way with Ascent EDGE-3
How to Make a Channel Letter — The Ascent Way with Ascent EDGE-3
A step-by-step walkthrough of building a channel letter with the Ascent CNC Router, Ascent EDGE-3, and Stapler — faster and more accurate than hand methods.
Making Aluminum Trim with the Ascent TMB-3
Making Aluminum Trim with the Ascent TMB-3
How the Ascent TMB-3 converts flat aluminum coil into trim cap on demand — why aluminum outlasts plastic and the cost savings in practice.
Buying Ascent Equipment: Purchase, Finance, or Section 179
Buying Ascent Equipment: Purchase, Finance, or Section 179
For most sign companies, the decision isn't whether to buy — it's how to pay. Purchasing outright vs. financing, and how IRS Section 179 helps.
What Sign Manufacturers Are Buying in 2026
What Sign Manufacturers Are Buying in 2026
The sign industry's 2026 buying decisions are driven by labor shortages and profitability — who's buying and why Ascent fits.

Let Ascent Experts Assemble All the Pieces of The Equipment Puzzle for your Company

Contact us