Arc Welding

Robots

Arc welding is the process of joining metals using the heat generated from an electric arc, and this can be done using different techniques such as MIG (Gas Metal Arc Welding), TIG (Gas Tungsten Arc Welding), PAW (Plasma Arc Welding) and more. It is a go-to method for anyone working with metal, whether in the automotive industry, construction or industrial equipment manufacturing.

One of the major challenges today is the shortage of skilled welders; the American Welding Society (AWS) projects that 330,000 new welding professionals are needed by 2028 with 82,500 average welding jobs to be filled annually between 2024 and 2028 in the United States to meet the increasing demands from industry sectors such as infrastructure, energy, automotive and construction. 

Now combine that with rising and constantly fluctuating material costs, supply chain disruptions and the need for customization and part flexibility, and it comes as no surprise that keeping production costs down and profit margins up is a major challenge.

Technological advancements—such as automation and advanced manufacturing processes—are needed in order to stay competitive. However, navigating this landscape can feel daunting, considering it requires time, investment and training.

We have been developing our robotic welding capabilities since the 1960s, with continuous improvements in technology, techniques and quality to simplify the process of adopting arc welding technology. This helps combat labor shortages, customer demands and market conditions. 

You can combine our arc welding robots with any major welding power supply. We offer a full suite of modular K positioners and K tracks, plus features like start sensing, touch sensing and adaptive fill technology—all of which come standard. Our support capabilities include through-life engineering services, training, service and support to ensure your automation project is successful.  

Another key differentiator is our integrator and technology partnerships. To help remove any technology adoption barriers, we have a library of integration partners that specialize in arc welding and add another level of support. Our technology-agnostic stance and software suite allow us to work with all types of technology partners—whether you need adaptive laser vision to track the joint geometry in real time or post-process weld inspection capabilities. 

Our advanced automation technology, paired with our partners, allows us to create the solution you need to reach the quality and output that you expect from an arc welding system. 

Using open architecture and state-of-the-art technology, our line of arc welding robots fully match the quality of a skilled welder. Address labor shortages, meet production goals and improve quality.

We offer a line of single-axis and multi-axis positioners, which are able to manipulate products up to 3000 kg. All are available in standard configurations or customized to fit your needs. The modular construction of K-positioners makes it easy to modify or adapt them as needed.

K-Tracks linear tracks extend the working range of our robots. They are available in various standard configurations or can be customized according to your needs.

Thanks to our software suite, arc welding robots, technology-agnostic stance and partner network, we make it remarkably easy to build your complete welding solution—whether you are an expert in automation technology or a novice user.

What is the best power supply to use for a robotic application?

When selecting a power supply for a specific application, consider factors such as material thickness/alloys and welding process needed to achieve desired welds.
-cost is always a factor.

Should I use a shock sensor or clutch to mount the torch to the robot?
  • Robots have collision detection software that protects them from excessive torque during collisions with fixed objects.
  • While collision detection works well at teaching speeds, high-speed crashes can still deform the torch barrel. A shock sensor allows the torch barrel to deflect upon impact, reducing the risk of deformation. 
What sensors are used in robotic arc welding applications?

Robotic arc welding systems utilize various sensors. These sensors can be either process-related (such as arc voltage sensors, gas monitoring) or geometrical (such as vision systems for seam tracking).

How do I ensure precise and adaptive control of robotic welding processes?

Achieving precise and adaptive control involves integrating sensor feedback, adjusting welding parameters in real-time, and optimizing robot motion.

What are the benefits of using robots for welding?

Robotic welding offers improved productivity, consistent quality, reduced labor costs, and the ability to work in hazardous environments.

How do I optimize cycle time in robotic welding?
  • Optimizing cycle time involves efficient path planning, minimizing robot movements, and reducing non-productive time (such as arc start delays).
  • Kawasaki has made programming simple and easy to use.
What safety precautions should I take when operating welding robots?

Safety measures include proper guarding, emergency stop buttons, risk assessments, and training for operators

How do I handle weld seam tracking with robots?
  • Vision systems and sensors can track welding seams accurately.
  • Servo robot, Abicor Benzel and wenglor laser tracking to name a couple.
What are the common challenges in robotic welding?

Challenges include handling complex joint geometries, managing weld distortion, optimizing travel speed, and addressing material variations.

What future trends can we expect in robotic arc welding?
  • AI driven path planning. 
  • Less expensive laser welding systems.

If your arc welding jobs are consistently pressured by labor shortages and the uncertainty of the supply chain and material costs, talk to us. Our line of arc welding robots is equipped to be a mainstay on your floor for years, if not decades.