Innovating Welding: Robotic Systems in Research and Development Applications
Innovating Welding: Robotic Systems in Research and Development Applications
For years, welding has been a fundamental process in construction and manufacturing industries – and recently, the discovery and use of robotic welding systems has introduced a revolutionary transformation. Specifically, in research and development applications, robotic welding has emerged as a powerful tool, enabling precise and efficient welding processes. At nexAir, we have been at the forefront of the welding industry, providing them with the gases, tools, equipment and KnowHow needed to Forge Forward in their day-to-day practices. In this article, we will continue to explore the robotic welding world and the systems that are driving innovation in welding and their impact on research and development.
Precision and Consistency
Robotic welding practices offer unmatched precision and consistency in welding processes. Each robot is equipped with advanced sensors and computer-controlled movements, executing welds with top-tier accuracy. The ability to follow pre-programmed paths ensures consistent weld quality every single time, helping to minimize any variations or defects. This level of precision is crucial in research and development applications where the focus is on developing and testing new welding materials, structures or techniques.
Efficiency and Productivity
The automation within the robotic welding systems greatly enhances efficiency and productivity in research and development settings. With these types of systems, the robots can work continuously without fatigue, reducing the need for manual labor and downtime. Their high-speed capabilities and precise movement control, lead to overall faster weld completion times. Further, the increased productivity allows researchers to iterate and experiment at a faster pace, allowing the development and refinement of new welding methods to take off.
Flexibility and Adaptability
Robotic welding systems help to provide amazing flexibility and adaptability in research and development applications. These robots can actually be programmed to perform a wide range of welding tasks, accommodate a variety of materials, joint configurations and welding methods. The versatility of this allows researchers to explore new welding approaches and adapt to the ever-changing project requirements. Along with this, the modularity of robotic welding systems allows for easy integration of any additional tools, like vision systems and non-destructive testing devices, further expanding their capabilities in research and development.
Safety Benefits
By automating welding practices, human operators can take a step back from potential hazardous environments, reducing the risk of injuries and exposure to harmful materials like fumes and radiation. Additionally, these robotic systems can incorporate advanced safety features, like real-time monitoring and collision detection, further reducing risks. This allows researchers to focus on innovation and experimentation while keeping their team safe.
As you can see, robotic systems have and are still continuing to transform research and development applications by providing enhanced precision, increased efficiency, safety and more. These types of innovations in welding technology allow researchers to explore new findings, develop advanced techniques and drive progress in many different industries that rely on welding. If you are eager to learn more about these improving technologies, please contact our team today – we’d be happy to guide you in the right direction.
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Manufacturing downtime costs American companies billions annually. When production lines halt due to gas supply issues, every minute translates to lost revenue, missed deadlines, and frustrated customers. At nexAir, we've spent decades developing solutions that keep manufacturing operations running smoothly.
The Hidden Costs of Gas-Related Downtime
When manufacturers calculate downtime costs, they typically focus on labor and lost production. However, gas supply disruptions create cascading effects that multiply these losses:
- Production rescheduling that disrupts carefully optimized sequences
- Rush shipping fees to meet customer deadlines despite delays
- Quality inconsistencies when processes restart after interruptions
- Overtime costs to catch up after unplanned stoppages
- Reputation damage when delivery commitments are missed
For a typical mid-sized manufacturer, each hour of downtime represents $5,000-$10,000 in direct and indirect costs. Our analysis shows that gas-related issues cause 7-12% of total manufacturing downtime - a substantial opportunity for improvement.
From Reactive to Proactive: The Supply Continuum
Most facilities follow a predictable pattern in their gas management evolution:
Stage 1: Reactive Management At this stage, facilities order gas when they notice supplies running low or, worse, after running out. Emergencies are common, and disruptions are accepted as "part of doing business." One automotive parts supplier operating this way experienced 14 production interruptions in a single quarter.
Stage 2: Calendar-Based Management Facilities advance to scheduled deliveries based on estimated usage. While better than the reactive approach, this method still results in either excess inventory (tying up capital and space) or shortages when usage spikes occur. A plastics manufacturer following this model maintained 40% more cylinder inventory than necessary while still experiencing occasional stockouts.
Stage 3: Consumption-Based Management Our telemetry systems monitor actual gas consumption, automatically triggering orders based on usage patterns rather than calendar dates. This approach virtually eliminates both stockouts and excess inventory.
Stage 4: Integrated Supply Management The most advanced approach connects gas management directly to production planning systems. Upcoming production requirements automatically adjust supply parameters, ensuring resources are precisely aligned with needs. A medical device manufacturer using this approach reports zero gas-related downtime for 27 consecutive months while operating with minimal inventory buffers.
Our expert KnowHow™ in industrial gas applications allows us to guide customers through this evolution at a pace that makes sense for their operations.
Customizing Solutions for Maximum Uptime
Manufacturing environments vary dramatically in their gas requirements and operational constraints. We've developed flexible approaches that address these differences:
- For high-volume, consistent usage operations, our bulk systems eliminate the cylinder handling that frequently causes supply disruptions. Bulk installations include telemetry monitoring and automated ordering to prevent outages.
- For variable-demand environments, our microbulk delivery systems provide the benefits of bulk supply with lower volume commitments. These systems reduce handling requirements while maintaining the flexibility needed for changing production schedules.
- For specialized applications requiring multiple gas types, our gas management programs combine cylinder tracking, usage monitoring, and automated replenishment. This comprehensive approach ensures that specialty gases are always available when needed, regardless of how infrequently they might be used.
- For multi-site operations, our enterprise supply programs coordinate deliveries and optimize inventory across locations. By treating the organization's gas requirements holistically, we minimize both stockouts and excess inventory across the network.
This consultative approach ensures that manufacturers receive solutions aligned with their specific operational patterns rather than generic "one-size-fits-all" systems.
Beyond Traditional Supply: Integrated Services for Total Reliability
Maximum uptime requires more than just reliable gas delivery. Our integrated services address the full spectrum of gas-related reliability factors:
Equipment maintenance programs that prevent system failures before they impact production Technical gas specialists who resolve application issues that could otherwise cause production problems Safety training that prevents accidents leading to downtime events Emergency response capabilities that minimize impacts when unexpected events occur Supply chain redundancy that ensures continuity despite regional disruptions
These services complement our supply solutions to form a comprehensive reliability strategy. By addressing both everyday operations and exceptional circumstances, we help manufacturers Forge Forward with confidence that gas-related disruptions won't derail their production targets.
Measuring Success: The Results That Matter
The ultimate measure of any downtime reduction strategy is its impact on production metrics. Our manufacturing customers consistently report significant improvements after implementing our comprehensive gas management solutions:
Downtime reductions of 85-95% for gas-related issues Inventory cost decreases of 20-30% through optimized supply management Administrative time savings of 5-10 hours weekly through automated ordering and tracking Production schedule adherence improvements of 3-7% due to improved supply reliability
These performance gains translate directly to bottom-line benefits that typically deliver ROI within months rather than years. More importantly, they allow manufacturers to confidently make delivery commitments, knowing that gas supply issues won't compromise their ability to perform.
Don't let gas supply issues impact your productivity. Contact us today to explore our tailored solutions.
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