Custom Welding Systems

We sell the complete robotic laser welding system, customized around your part.

The product is not a generic workstation. It is a configured production cell: robot, laser, welding head, wire feed, controls, fixture, safety, process package, training, and handoff, selected after we understand the part and the weld.

Real robotic laser welding workstation with robot and fixture table
Needs first, product second.
System Input File

Before the quote, we map the application.

A custom robotic laser welding system starts with the same practical file set as a service trial.

PART Part geometry, weld seam locations, access limits, and loading method
WELD Material, thickness, joint type, gap range, and inspection target
CAP Cycle time, annual volume, staffing target, and automation budget
Custom fixture and robotic laser welding system validation
The fixture and weld access decide the system layout.
Workstation in Motion

See the system story before you configure the cell.

This edited demo keeps the practical sequence: live weld, result check, labor comparison, and real customer applications.

Robotic laser welding workstation A compact proof clip for the cell, process, comparison, and application range.
Cell-level view The video shows robot, laser head, fixture table, and operator context together.
Decision evidence Comparison graphics connect system purchase to labor, output, and finishing pressure.
Case-backed scope Reference clips show why the final workstation should be configured around the part.
Complete Product Scope

The sellable product is the whole cell, not only the robot arm.

Real robotic laser welding workstation package
Complete Package

Robot, laser, controls, safety

Integrated as one production system.

Robot welding with custom fixture on large stainless part
Custom Fit

Built around your workpiece.

Fixture, reach, loading, and weld access come first.

Welded sample showing fit-up validation
Process Proof

Weld result before purchase.

Sampling can lock the process before the final quote.

System Configurator

Build a robotic laser welding cell like a production PC.

Select the robot reach, laser power, laser source brand, welding head preference, and process modules. The live summary gives a first planning package before formal fixture review.

1 Robot arm
2 Laser power
3 Laser source brand
4 Laser welding head
5 Auto-matched hardware
Welding head WSX-HB15 robot welding head WSX is the recommended standard route. Raytools remains available for customer preference or replacement planning.
Water chiller S&A CWFL-1500 The S&A CWFL chiller model follows the selected laser power.
6 Process modules
Not Sure Yet?

Tell us the material, thickness, speed target, and inspection requirement.

If the buyer does not know which robot or laser to choose, this brief gives us enough context to recommend the first configuration.

ROI Calculation

What changes before and after one robotic welding system.

Before Automation

Traditional MIG / TIG manual welding

  • 5 skilled welders producing about 40 pieces per day
  • High labor exposure: roughly $60K-$90K per welder per year in Western markets
  • Quality shifts with fatigue, staffing gaps, and operator variation
After One System

Integrated robotic laser welding system

  • Daily output around 120 pieces, with peak cases higher
  • Reduce 2 skilled welders and replace with 1 general operator for load / unload
  • Labor savings of about $8,000-$12,000 per month
  • Typical payback target: 6-10 months
“One robotic welding system can conservatively replace the productive output of three skilled welders. Once stable quality is part of the equation, the math gets even better.”
Reference Platform

Robot and laser platforms selected around the job.

Representative platform notes extracted from the supplied laser welding robot deck. Final configuration is customized after application review.

Platform Representative Specification Typical Use
ER15-1400 15 kg payload, 1400 mm reach, ±0.03 mm repeatability, IP67 Precision autogenous laser welding on compact fixtures and repeatable thin-sheet parts.
ARC12 series 6-axis platform, 1400 / 2000 mm reach, ±0.03 mm repeatability, IP67 Small-to-medium robotic laser welding systems with swing head, wire feed, and vision options.
ER25 / ER35 25 / 35 kg payload, 1800 mm reach, ±0.05 mm repeatability, IP67 Higher power heads, larger fixtures, and medium-thick laser or hybrid welding layouts.
Reference production case 3000+ operating hours and 35,000+ completed parts on ER15 robotic laser welding systems Useful benchmark for buyers who want production history, not only catalog specifications.

Configuration range

Cell Family Reach Laser Power Plate Range
EFT1214 1400 mm 1500W / 2000W / 3000W 0.5-5 mm
EFT1220 2000 mm 1500W / 2000W / 3000W 0.5-5 mm
EFT2518 2000 mm 6000W 0.5-10 mm

Laser source and configuration options

1500W 2000W 3000W 6000W 20kW class hybrid Vision positioning Seam tracking Dynamic wire feeder Laser-arc hybrid Custom fixtures
Reference Build

ASWE1214-30: reference 3kW wire-fed robotic laser welding system.

A reference system configuration for 1-3 mm carbon steel and stainless steel parts with integrated wire feed.

Base Package

ARC12-1400 robot + 3kW laser system

  • ARC12-1400 six-axis robot, 12 kg payload, 1479 mm reach, ±0.03 mm repeatability
  • MFSC-3000 laser source with 3kW swing welding head
  • Laser, water chiller, control module, HMI, and robot controller integrated into one cabinet
  • Custom robot base, torch mount, control cabinet rack, electrical cabinet, and pneumatic package
Wire Feed

Designed for real fit-up tolerance.

  • 0.8-1.6 mm wire diameter support
  • 0.5-10 m/min wire feed adjustment range
  • Manual feed / retract, end retract, repeat feed, and job recipe storage
  • RS485 communication and 0-10V robot analog control input
Process Package

The system controls the weld, not just the motion path.

Laser

Power and beam timing

Controls laser on/off, power, frequency, duty cycle, and ramp-up / ramp-down behavior.

Arc

Hybrid process control

Coordinates current, voltage, wire feed, arc start, arc stop, and feedback signals.

Wire / Gas

Fit-up compensation

Manages wire speed, wire detection, wire retract, pre-flow gas, and delayed protection gas.

Variable

One seam, changing recipe

Supports variable parameters along one weld to handle unequal thickness or inconsistent gaps.

Optional Modules

Quote the assist hardware only when the process needs it.

Positioning

Dual-axis positioner

300 kg reference load, ±180° horizontal rotation, ±135° vertical rotation, and 1 arc-minute repeat positioning.

Tracking

Seam tracking

Laser seam tracking and smart control options can be added when joint position variation is the production risk.

Safety

Enclosure and guarding

Fence, viewing panels, interlocks, gas management, and fixture access are specified around the final layout.

Training

Robot operation package

Robot operation materials support commissioning, teaching, and maintenance handoff.

Custom Build Logic

From application review to a configured production cell.

You 1

Share application data

Part drawings, weld targets, volume, inspection method, and current pain points.

SkyFire 2

Select process route

Autogenous, wire-fed, or laser-arc hybrid based on gap, penetration, and material.

SkyFire 3

Design fixture concept

Clamping, reach, part access, positioner need, and loading method are mapped first.

SkyFire 4

Configure the cell

Robot, laser power, head, wire feed, chiller, controls, safety, and HMI are specified.

SkyFire 5

Trial weld when needed

For hard materials or tight quality targets, we prove the weld before final scope.

SkyFire 6

Deliver and train

Commissioning, operator training, recipe handoff, and maintenance notes complete the package.

Selection Inputs

What to prepare before asking for a quotation.

  • Material grade and thickness
  • Joint configuration and expected fit-up tolerance
  • Maximum assembly gap
  • Inspection and certification requirements
  • Target throughput and cycle time
  • Current welding process, filler wire, and shielding gas
  • Photos or videos of the part and current weld
Proof Before Purchase

Sampling is still the fastest way to reduce buying risk.

Before the final system configuration, send challenging parts for real trial welding. We can return a package that includes metallography, tensile testing, and cycle-time evaluation.

Further Reading

Bring finance, engineering, and sourcing into the same decision thread.