Robotic Laser Welding Workstation for 1.5+1.5mm Stainless Steel Sample Welding
Robotic Laser Welding Workstation for 1.5+1.5mm Stainless Steel Sample Welding
Sample Welding Test – July 27
On July 27, PDKJ conducted a sample welding test using a robotic laser welding workstation to process 1.5+1.5mm stainless steel.
The test was carried out to evaluate the suitability of robotic laser welding for stainless steel components and determine appropriate welding parameters for the actual workpiece.
Sample testing allows the welding process to be evaluated before the equipment is introduced into regular production.
Application Overview
| Item | Details |
|---|---|
| Test Date | July 27 |
| Application Type | Sample Welding |
| Welding Equipment | Robotic Laser Welding Workstation |
| Welding Material | Stainless Steel |
| Material Thickness | 1.5+1.5mm |
| Welding Process | Robotic Laser Welding |
Sample Welding Requirements
The test involved welding two layers of 1.5mm stainless steel, with a material configuration of 1.5+1.5mm.
For stainless steel sheet welding, appropriate control of laser power, welding speed, focal position, and other process parameters is important for achieving the required weld formation.
The purpose of this sample test was to evaluate the welding process using the actual material configuration.
Robotic Laser Welding Solution
PDKJ used a robotic laser welding workstation to perform the sample welding process.
The workstation integrates an industrial robotic arm, fiber laser welding system, control system, and workpiece positioning fixture. The robotic arm follows a programmed welding path to complete the required welding operation.
The welding parameters can be adjusted according to the stainless steel grade, material thickness, joint design, welding position, and required weld quality.
Sample Welding Process
Before welding, the stainless steel workpieces are positioned and secured using a suitable fixture.
The robotic arm then moves along the programmed welding trajectory while the laser welding system provides the required laser energy.
During sample testing, different process parameters can be adjusted and evaluated, including:
- Laser power
- Welding speed
- Focal position
- Welding path
- Shielding gas settings
- Workpiece positioning
The objective is to identify a suitable process window for the 1.5+1.5mm stainless steel application.
Key Advantages of Robotic Laser Welding
Consistent Welding Path
The robotic arm follows a programmed trajectory, helping maintain consistent movement during repeated welding operations.
Precise Process Control
Laser welding parameters can be adjusted according to the actual material thickness and joint structure, providing flexibility during process development.
Repeatable Welding
Once suitable welding parameters and robot paths are established, the same process can be reproduced across similar workpieces.
Flexible Automation
A robotic laser welding workstation can be configured for different workpiece shapes, welding positions, and production requirements.
Suitable for Batch Production
After the sample welding process is confirmed, the robotic system can be used as part of an automated production process for repetitive welding applications.
Why Conduct Sample Welding Before Production?
Sample welding is an important step when introducing robotic laser welding to a new application.
Testing the actual workpiece allows manufacturers to evaluate the welding process before finalizing the equipment configuration.
The sample test can help determine:
- Suitable laser power
- Welding speed
- Welding path
- Joint configuration
- Weld appearance
- Welding penetration
- Heat input
- Potential deformation
- Production cycle time
Based on the test results, the welding process and workstation configuration can be further optimized.
Stainless Steel Laser Welding Application
Stainless steel is widely used in sheet-metal fabrication and industrial manufacturing because of its corrosion resistance and surface appearance.
For 1.5+1.5mm stainless steel, robotic laser welding provides an automated method for producing consistent welds while allowing welding parameters to be adjusted according to the specific application.
Potential applications include stainless steel enclosures, cabinets, kitchen equipment, hardware components, industrial parts, and other fabricated metal products.
From Sample Testing to Automated Welding
A successful sample welding test provides a foundation for further automation.
After confirming the welding process, PDKJ can develop the workstation configuration based on the customer's production requirements, including:
- Robotic arm configuration
- Laser power
- Welding head
- Welding fixture
- Rotary positioning system
- Safety enclosure
- Automatic loading and unloading
- Production line integration
This allows the final robotic laser welding solution to be matched to the customer's actual manufacturing process.
Conclusion
This July 27 sample welding test demonstrates the application of a robotic laser welding workstation for 1.5+1.5mm stainless steel.
By testing the actual material configuration and optimizing the welding parameters, manufacturers can evaluate the feasibility of robotic laser welding before moving toward automated production.
PDKJ provides robotic laser welding workstations and customized welding solutions for stainless steel, carbon steel, galvanized sheet, aluminum, and other metal fabrication applications.
For specific welding applications, PDKJ can evaluate the material, thickness, joint design, workpiece structure, and production requirements to develop a suitable robotic laser welding solution.
