How much faster was the TIG welding process?

The documented TIG applications ran two to six times faster than manual welding. One part fell from 15 minutes to five or six minutes, while another dropped from three or four minutes to 30 to 40 seconds.

How difficult was the system for welders to learn?

A team member programmed 20 weld points during a four-hour evaluation, and the source reports one to three days of training for new systems. A manual welder with no prior collaborative-robot experience learned to position the arm and save the required weld points through the interface.

Did automation eliminate the need for welding personnel?

The case describes a different labor pattern, not an unattended welding department. Two operators typically covered four cells by loading one cell while another welded, allowing skilled people to supervise more production.

What established the financial case?

The fabricator proved the application with its own parts before placing the order. Higher output, faster TIG cycles, broader operator coverage, and access to work previously constrained by manpower contributed to payback in less than 12 months.

a high-mix metal fabricator in Ohio

Ohio Fabricator Raises Welding Production 200% With Cobots

Q: Can a welding cobot handle high-mix, low-volume production?

This deployment shows that it can when programming and fixturing suit frequent changeovers. The fabricator used minimal manual fixturing and taught weld points through the cell interface instead of engineering elaborate tooling for every part.

A high-mix Ohio metal fabricator used flexible welding cobots to raise production 200%, handle complex TIG work, and reach payback in less than 12 months.

200%
higher welding production: <12 mo
documented payback: 2x to 6x
faster TIG welding: 4
cobot weld cells

Based on a documented real-world deployment. Figures are from public reporting; the organization is not named.

A welder works among fabricated metal parts on a busy shop floor. — Photo: ArtHouse Studio

Complex Welds, Short Runs, Constant Change

A high-mix metal fabricator in Ohio was broadening its capabilities as customers consolidated work among fewer suppliers. That ambition collided with a difficult production reality: many different parts, modest batch sizes, frequent changeovers, and automation that traditionally favored long, repetitive runs.

Complex aluminum assemblies were a particular constraint. Their TIG welds required work above and below the part, exact torch positioning, difficult angles, careful heat control, and repeated manual repositioning. The shop needed more capacity without burying each low-volume job beneath elaborate fixturing.

Skilled labor was another limiting factor. Welding processes were difficult to staff, and conventional automation lacked the adaptability the product mix demanded.

Automate high-mix, low-volume welding without rigid, part-specific tooling
Handle demanding TIG geometry while preserving weld precision
Give existing welding personnel an approachable way to program new work
Expand output despite persistent staffing constraints

Prove the Work, Then Broaden the Cell

The documented deployment began with the shop's own parts. During a four-hour hands-on evaluation, the team programmed 20 weld points and ran production samples. That practical test established that changeover and programming could fit the cadence of a fabrication shop.

The company installed four collaborative MIG welding cells first. Two operators typically managed two cells apiece, loading one while the other welded. After that application proved itself, the shop extended the approach to more intricate TIG work.

The TIG configuration used automated torch movement instead of forcing a welder to rotate and manipulate the fixture. It handled stainless steel and aluminum on the same system, supported varied weld paths and positions, and required only minimal manual fixturing. Programming was performed through the cell interface by moving the arm to the required point and angle.

Training for new systems was offered over one to three days. Subsequent support conversations reportedly centered on advanced capabilities rather than keeping the equipment operational, indicating that operators became increasingly self-sufficient.

Validate the application with representative production parts
Start with the more readily repeatable MIG workload
Let trained operators alternate between active cells
Apply lessons from the first cells to complex TIG welding
Build operator capability through hands-on programming and training

A close view of a skilled welder making a precise TIG weld on an aluminum assembly. — Photo: Peter Xie

More Welding Capacity From the Same Shop Floor

The headline result was a 200% increase in welding production. For complex TIG work, automated welds ran two to six times faster than manual welding, with the cobot moving around the workpiece instead of requiring repeated fixture manipulation.

On one aluminum part, weld time fell from 15 minutes manually to five or six minutes. Another part dropped from three or four minutes to 30 to 40 seconds. Those gains came without narrowing the shop to a single repetitive product.

The four welding cells also changed labor coverage. Two operators could each attend two cells, loading one while its counterpart ran. The documented investment reached payback in less than 12 months and allowed the fabricator to accept work that had previously exceeded its available manpower.

A Practical Model for High-Mix Automation

A technician inspects a finished metal component for dimensional accuracy and weld quality. — Photo: Michael Orshan

This documented example was not a Service Robot Co. deployment. It shows why welding automation should begin with parts, process variation, fixturing, and operator workflow rather than a predetermined brand or machine.

Service Robot Co. is a full-service, OEM-neutral commercial robot integrator for US businesses. As a vendor neutral robot integrator, we select equipment across manufacturers and provide robot financing for small business, collaborative robot arm rental, cobot rental for manufacturing, or purchase paths according to the operating case.

The same team handles the commercial robot demo, robot pilot program, robot deployment and integration, training, and continuing care. Maintenance included programs can combine remote triage, on-site dispatch, and a robot maintenance service plan through a nationwide US engineer network. It is one vendor for the full lifecycle, with one partner one number when production needs attention.

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