ROBOTIC INNOVATION 4.0: TEKNIKER BOOSTS INDUSTRIAL MANUFACTURING WITH CUTTING-EDGE LASER TEXTURING
In an increasingly competitive and digitalized industrial landscape, both traditional robotics and the emerging framework of Industry 4.0 demand solutions that enhance efficiency, durability, and functionality of components. In this context, Tekniker—a technological institute within the Basque Research and Technology Alliance (BRTA)—has demonstrated remarkable progress in the field of laser texturing, promising a revolution in the way industrial surfaces and components are produced.
At the international Mesic 2025 conference held in Bilbao from June 18 to 20, Tekniker, as an official sponsor, showcased the outcomes of its R&D initiatives. These projects focus on the application of laser technology to endow surfaces with specific functional properties, unlocking a wide array of possibilities across various industrial fields.
One of the highlights was the presentation of a laser-textured surface developed under the Infunda project, supported by the Spanish Ministry of Science and Innovation. This surface demonstrates easy-to-clean properties, making it an especially promising solution for sectors where hygiene and contamination resistance are critical, such as agriculture and healthcare. The Infunda project also confirmed the industrial viability of using ultra-short pulse lasers for texturing, a cutting-edge technology that could revolutionize the large-scale production of polymer containers in the food and automotive industries.
Julen Molinuevo, a researcher at Tekniker, emphasized the innovative potential of this technology in transferring functional textures onto three-dimensional parts with complex geometries. This capability significantly broadens the scope of laser texturing applications, allowing the customization of texture types and dimensions to suit specific requirements. Examples include surfaces engineered with anti-icing or antibacterial properties—essential for improving safety and performance in demanding environments.
Tekniker’s developments in laser texturing represent a major leap in advancing industrial processes. By delivering solutions that go beyond mere surface aesthetics, this technology exemplifies how research and innovation in robotics and advanced materials are laying the foundation for a smarter, more efficient, and future-ready era of industrial manufacturing.
THE POWER OF AUTOMATION: YASKAWA MH-SERIES NOW WITH HIGHER PAYLOADS
Industrial robotics is evolving at a remarkable pace, and Yaskawa Motoman continues to lead the way with its MH series of material-handling robots. Known for their versatility and efficiency, these robots have taken a significant leap forward with the introduction of models capable of handling heavier loads—reshaping the boundaries of what’s possible in industrial automation.
At the forefront of this advancement is the MH215, a robot that stands out for its speed, power, and precision. Built to handle large components, it features highly durable drive units on each of its primary axes. Despite its rapid movements, the MH215 maintains exceptional positional repeatability at ±0.2 mm, ensuring stability and accuracy even in the most demanding operations.
Its reach is impressive: a vertical span of 3,894 mm and a horizontal extension of 2,912 mm allow it to manage complex tasks with ease. The MH215 excels in rigorous applications such as machine tending, pick-and-place operations, spot welding, and cutting—making it a comprehensive solution for a wide range of industries.
The MH series has undergone a significant transformation with the integration of high-payload models. While previous iterations included robots with lighter load capacities—such as the MH5 and MH6, and medium-range versions like the MH50 and its extended-reach variants—the inclusion of the MH215 and its 165 kg, 185 kg, and 250 kg versions has ushered in a new era of performance. This expansion not only enables the handling of much heavier parts but also streamlines production line design, lowering costs and improving operational efficiency.
These robotic advancements have been embraced across multiple industries that require precise handling of heavy components. In the automotive sector, companies like Toyota and Ford use models like the MH215 and the MH50 II-35 for spot welding and the assembly of large parts. In metallurgy and manufacturing, General Motors integrates MH50 units for cutting and manipulating metal components. In construction, firms rely on these robots to manage bulky materials such as steel beams and concrete blocks. Even in electronics and technology, giants like Bosch and Siemens employ MH-series robots for the assembly of electronic parts and the handling of industrial batteries.
The benefits are clear. These high-capacity robots offer greater load-handling capabilities, reduce the need for complex machinery by offering streamlined robotic solutions, enhance efficiency in repetitive tasks, and adapt seamlessly to a wide variety of applications—from welding to large-scale assembly.
As the demands of the industrial world grow more dynamic, robotics continues to evolve to meet them. Through the expansion of its MH series, Yaskawa Motoman reinforces its commitment to innovation and productivity—delivering tools that empower companies to grow, adapt, and face new challenges with confidence.
COLLABORATIVE ROBOTS: THE EVOLUTION OF HUMAN LABOR IN THE AGE OF AUTOMATION
In an increasingly automated industrial world, collaborative robots—or cobots—are redefining the meaning of human work. Far from replacing people, these machines are designed to work alongside them, enhancing efficiency, safety, and quality in sectors such as automotive, electronics, food production, and logistics. With an annual growth rate exceeding 30%, cobots have become one of the most accessible and effective tools for companies undergoing digital transformation.
Unlike traditional industrial robots, cobots are lightweight, flexible machines equipped with advanced sensors that allow them to interact safely with humans. They don’t require safety cages or complex programming, which makes their integration into existing production lines significantly easier.
These robots offer a host of advantages. They can operate continuously—day and night—performing repetitive tasks such as assembly, welding, packaging, or visual inspection. This boosts productivity without the need to expand the workforce. Thanks to built-in proximity sensors and automatic stop mechanisms, they also improve workplace safety by detecting human presence and adapting their behavior accordingly. Their modular design and simple programming make them highly adaptable: companies can quickly reconfigure them to perform different tasks based on shifting production needs. Moreover, the low initial investment and ease of implementation make cobots an especially appealing solution for small and medium-sized enterprises looking to automate without major capital outlays. Their precision and consistency also mean fewer errors and higher product quality.
Real-world applications show how cobots are already reshaping industry. At Amazon distribution centers, robots like Hercules and Proteus move and organize goods, while cobots such as Sequoia and Sparrow use artificial intelligence to carry out selection and sorting tasks. In Australia, the bakery Priestley’s Gourmet Delights has adopted an advanced production system incorporating cobots and autonomous vehicles, doubling its production capacity and creating new specialized jobs. Meanwhile, automakers like BMW and Ford use cobots on their assembly lines for welding, component installation, and adhesive applications—streamlining operations while reducing the risk of workplace injury.
Industry statistics reinforce this trend. In 2023, cobots accounted for 11% of all industrial robots installed, with annual sales approaching $3 billion and a growth rate exceeding 30%. Their implementation has been linked to productivity increases of 20–30%, error reductions of 10–20%, and safety improvements of 15–25% across various industrial applications.
Collaborative robots are transforming the workplace by enabling safer and more efficient interactions between people and machines. By taking on repetitive or hazardous tasks, they allow workers to focus on higher-value activities such as innovation and problem-solving. Their accessibility and versatility make them a key tool for business competitiveness in the digital age. From vehicle assembly, soldering, and quality control in the automotive industry, to circuit board assembly in electronics, to food sorting and labeling, warehouse logistics, or medical tasks like sample processing and surgical assistance—cobots are not only driving efficiency and quality, but also contributing to safer and more sustainable work environments.
ARTHUR: A Technological Revolution in Arthritis Treatment
Arthritis, a debilitating condition affecting millions of people worldwide, may have found a new ally in the fight against pain and inflammation: ARTHUR (Arthritis Ultrasound Robot). This groundbreaking ultrasound robot, developed by the Danish company ROPCA ApS in collaboration with KUKA, a leader in robotics, is built on the foundation of KUKA’s LBR Med medical robotic arm. Promising to revolutionize the way this complex disease is treated, ARTHUR offers a more precise, personalized, and potentially more effective therapeutic approach.
Arthritis encompasses a range of conditions that cause pain, stiffness, and inflammation in the joints. Current treatments vary widely, from medications and physical therapy to surgical interventions in severe cases. However, identifying the optimal therapy and ensuring its precise delivery often present significant challenges. It is within this context that ARTHUR emerges, merging cutting-edge robotic technology with the therapeutic benefits of ultrasound. By offering millimeter-level precision, ARTHUR ensures that ultrasonic energy is delivered optimally to maximize therapeutic outcomes.
Unlike a human therapist, ARTHUR is a sophisticated robotic system specifically designed to administer ultrasound treatments in a controlled and precise manner. Equipped with a high-precision robotic arm and an advanced imaging guidance system—such as MRI or diagnostic ultrasound—ARTHUR is capable of targeting affected joints with extraordinary accuracy. Its core lies in its unparalleled ability to locate inflamed or damaged tissue within a joint. Utilizing the integration of medical imaging and advanced robotic programming, ARTHUR directs therapeutic ultrasound waves specifically to the problematic area, significantly reducing exposure to surrounding tissues.
Therapeutic ultrasound has long been used to alleviate pain and inflammation by stimulating blood circulation and promoting tissue healing. Yet, the effectiveness of these treatments has historically depended on the skill of the therapist administering them. ARTHUR changes this paradigm entirely by ensuring millimeter-accurate energy delivery, thus maximizing the therapeutic benefits of each session.
The potential benefits of integrating ARTHUR into arthritis treatment are profound. It represents a milestone in the intersection of medical technology and patient care. By delivering targeted therapy with unparalleled precision, ARTHUR not only increases the likelihood of effective treatment but also sets a new standard for what is possible in the realm of robotic-assisted healthcare. For patients battling the daily challenges of arthritis, ARTHUR offers not just a glimpse of relief but a promise of a transformative approach to managing this chronic condition.
SIMPLE ROBOT PROGRAMMING IN MEDIUM-SIZED COMPANIES: THE SUCCESS STORY OF ROBERT BÜRKLE AND THE SRCI INTERFACE
Industrial automation is no longer a luxury reserved for large corporations. Today, even mid-sized companies are embracing innovative technologies to streamline their operations. A prime example is the German manufacturer Robert Bürkle GmbH, which has successfully integrated industrial robots into its production lines thanks to the Standard Robot Control Interface (SRCI).
Based in Freudenstadt, in the Baden-Württemberg region, Robert Bürkle specializes in manufacturing laminating systems for credit cards and photovoltaic modules, as well as painting systems for the furniture and wood-processing industries. In particular, the company faced a growing need for automation in handling lightweight panels used in caravan manufacturing—some weighing up to 250 kilograms. Robots became essential.
However, Bürkle encountered a major challenge: a shortage of skilled professionals in robot programming. Traditional programming methods required in-depth knowledge of each robot manufacturer’s proprietary system, making integration complex and costly.
To overcome this, Bürkle adopted the SRCI interface, which allows robots to be programmed directly through the PLC (Programmable Logic Controller)—eliminating the need for specialized knowledge of each robot brand. SRCI provides a library of PLC function modules that simplify robot control and integration.
The company installed a Yaskawa MOTOMAN GP225 handling robot, capable of lifting up to 225 kilograms with a reach of 2,702 mm. Thanks to SRCI, the PLC programmer was able to work within a familiar environment and complete commissioning quickly. The company also leveraged a digital twin to optimize system design and fine-tuning, improving efficiency even further.
This implementation reflects a broader trend toward standardization and simplification in industrial robotics. Developed by Siemens in collaboration with Profibus & Profinet International (PI), SRCI aims to create a universal interface between PLCs and robots, making programming and operation more accessible across different platforms.
Universal Robots has also integrated SRCI into its software, enhancing the connectivity of its collaborative robots and enabling seamless integration with Siemens PLCs. This simplifies setup and accelerates deployment in production lines built around the Siemens ecosystem.
Robert Bürkle’s experience shows that adopting standardized interfaces like SRCI can be a game-changer for mid-sized companies looking to automate without relying on niche programming expertise. Standardization not only reduces costs and implementation time but also opens the door to broader adoption of industrial robotics.
As more robot and PLC manufacturers embrace standards like SRCI, integrating robots into industrial environments will become increasingly accessible, efficient, and scalable—empowering companies of all sizes to embrace the future of automation.
THE FUTURE OF LOGISTICS: AUTONOMOUS ROBOTS IN THE SUPPLY CHAIN
Modern logistics is undergoing a profound transformation, driven by the integration of autonomous robots into the supply chain. These robots, powered by artificial intelligence, are revolutionizing how goods are stored, sorted, and delivered—cutting costs and speeding up operations. Industry giants like Amazon and Walmart are leading the way, adopting cutting-edge technologies to boost efficiency and stay ahead in an increasingly competitive market.
Autonomous Mobile Robots (AMRs) are at the heart of this shift. Equipped with sensors, cameras, and AI algorithms, these mobile units can navigate complex environments and perform tasks without human intervention. In logistics, they’re being used for everything from transporting goods within warehouses to sorting items and preparing orders for shipment.
One of the most significant advantages of AMRs is their ability to reduce operational costs. By taking over repetitive and physically demanding tasks, they help companies lower labor expenses while maintaining high productivity. Their capacity to work around the clock—24/7—also means faster order fulfillment and shorter delivery times, which translates into better customer satisfaction.
Accuracy is another key benefit. Thanks to advanced computer vision and AI, these robots can perform tasks with a level of precision that minimizes errors in sorting and packing. This not only improves quality control but also reduces returns and associated costs.
Space optimization is yet another area where AMRs shine. Unlike traditional systems, these robots can navigate narrow aisles and make better use of vertical storage, allowing for higher storage density and more efficient use of warehouse space.
The numbers speak for themselves. The global market for autonomous robots in logistics and warehousing is projected to grow from $2.96 billion in 2023 to $18.56 billion by 2032, with a compound annual growth rate (CAGR) of 22.6%. Adoption of Automated Guided Vehicles (AGVs) has surged by 70%, with over 65% of large-scale distribution centers now using them to enhance operational efficiency. Meanwhile, the use of mobile collaborative robots has increased by 75%, further driving warehouse automation.
The integration of autonomous robots is not just a technological upgrade—it’s a strategic shift that’s redefining the supply chain. By improving speed, accuracy, and space utilization, these robots are helping companies meet rising consumer expectations while staying agile and cost-effective. As technology continues to evolve, the role of autonomous robots in logistics is only expected to grow, ushering in a new era of smart, responsive, and highly efficient supply chains.
ROBOTIC WELDING: ROBOTS OR INDUSTRIAL ROBOTS? HOW TO CHOOSE THE BEST SOLUTION FOR YOUR PRODUCTION
In today’s manufacturing landscape, process automation has become a key driver of productivity, quality, and workplace safety. In the field of welding, the integration of robotics has revolutionized how companies approach this critical operation. However, not all robotic welding solutions are the same. Two main approaches exist: collaborative welding, using cobots, and industrial welding, using high-performance traditional robots. Choosing between them depends on a variety of technical and operational factors.
Collaborative Welding: Flexibility Meets Automation
Collaborative robots, or cobots, are designed to work safely alongside humans without the need for safety fences or enclosures—under controlled conditions. They are particularly well-suited for companies seeking a gradual transition to automation, especially those with low to medium production volumes.
One of the main advantages of cobots is their ease of programming and reconfiguration. Thanks to intuitive interfaces and manual teaching systems, even operators with no prior experience in robotics can quickly learn to use them. This makes it easy to adapt the welding cell to different parts and tasks with minimal changeover time.
Cobots also have a compact footprint and can be easily integrated into existing workshops. They are an ideal solution for manufacturers of custom metal structures, short production runs, maintenance work, or on-demand manufacturing.
Industrial Welding: High-Volume Precision and Productivity
On the other hand, when it comes to repetitive welding processes with high technical demands and large-scale production, industrial robots remain the most efficient option. Equipped with high-load, high-speed, and high-precision arms, these robots are built for continuous operation with minimal downtime.
These systems require a more robust infrastructure, including safety enclosures, offline programming, positioning tools, and often sensors or vision systems. However, the return on investment is justified by the consistency, quality, and productivity they deliver—especially in industries such as automotive, heavy machinery, and mass production.
Which Solution Should You Choose?
The decision between a collaborative or industrial welding robot depends on several factors: production volume, available space, need for flexibility, budget, and staff expertise.
If your company needs a versatile, easy-to-deploy solution with low risk, a welding cobot is an excellent entry point into automation.
If your environment demands sustained performance, extreme precision, and efficiency in large batches, industrial robotic welding is the better choice.
In both cases, the key is to align the robotic solution with your production goals, the types of parts to be welded, and your company’s growth strategy. When implemented correctly, robotics not only enhances the welding process but also boosts competitiveness and adaptability in the face of evolving market challenges.
DESIGNED TO CARE, PROGRAMMED TO COLLABORATE WITH YASKAWA HC
In the evolving landscape of industrial automation, collaborative robots—commonly known as cobots—are redefining the way humans and machines interact. The HC series by Yaskawa exemplifies this transformation, offering a new standard in safety, adaptability, and user-friendliness. Designed to work side by side with human operators, these robots eliminate the need for physical safety barriers, provided that a proper risk assessment is conducted. This is made possible through advanced technologies such as Power and Force Limiting (PFL), which automatically halts the robot upon detecting contact with a person or object, significantly reducing the risk of injury. Additionally, the design of the HC series avoids pinch points, further enhancing workplace safety.
Barrier-Free Integration for Modern Workspaces
One of the most compelling advantages of the HC series is its ability to operate without physical enclosures. This feature allows for seamless integration into existing production lines, optimizing space and enabling quick reconfiguration of workflows. Such flexibility is particularly valuable in industries characterized by high product variability or limited floor space, where adaptability is essential to maintaining operational efficiency.
Balancing Safety and Productivity
A standout feature of the HC series is its dual-mode operation. When workers are present, the robot functions at safe, reduced speeds. However, once the area is clear, it can switch to higher speeds to maximize productivity. This dynamic adjustment ensures that performance is tailored to the specific demands of each task, without compromising safety. It’s a perfect balance between human collaboration and industrial efficiency.
Intuitive Programming for All Skill Levels
Yaskawa has also prioritized ease of use in the HC series. With tools like the “Smart Pendant”—an intuitive touchscreen interface—users can learn and program basic movements in as little as 30 minutes. Moreover, the direct teaching function allows operators to manually guide the robot arm to new positions, making it accessible even to those with no prior experience in robotics. This democratization of programming empowers a broader range of workers to engage with automation technology.
Versatility in Every Application
The HC series is engineered for a wide array of applications, including assembly, material handling, palletizing, quality inspection, and welding. Its robust design and ability to operate in challenging environments—such as those with dust or moisture—make it ideal for sectors like automotive, electronics, and food processing. This versatility ensures that a single robot can be deployed across multiple tasks, enhancing return on investment and operational agility.
Conclusion: A Smarter Path to Industrial Automation
The Yaskawa Motoman HC series represents a forward-thinking approach to industrial automation. By integrating safety, flexibility, and ease of use, these cobots not only improve process efficiency but also foster a safer and more collaborative work environment. As industries continue to evolve, the HC series stands out as a reliable and adaptable solution for the challenges of modern manufacturing.
EXPLORING THE FANUC TEACH PENDANT – KEY TO MODERN INDUSTRIAL AUTOMATION
At the heart of industrial automation, the FANUC Teach Pendant stands as an essential tool for programming and operating industrial robots. This portable device allows operators to interact directly with the robots, facilitating tasks from initial setup to maintenance and troubleshooting.
Understanding the FANUC Teach Pendant
The Teach Pendant goes beyond a conventional remote control; it is a comprehensive platform that integrates hardware and software, enabling precise and efficient handling of FANUC robots. Its intuitive user interface features a color touchscreen and physical buttons, allowing efficient navigation through the robot’s menus and functions. The programming controls facilitate the creation and modification of programs, specifying the robot’s movements, actions, and sequences. Manual control allows operators to move the robot in various directions, useful for tasks requiring precision or during initial setup. Real-time monitoring and diagnostics provide essential information about the robot’s status, errors, and diagnostic data, crucial for preventive maintenance and troubleshooting. The teaching mode enables operators to physically guide the robot through a specific task, recording these movements for subsequent automatic execution.
FANUC has also designed enhanced versions like the iPendant Touch, which incorporates an advanced graphical interface with 4D visualization and customization options via HTML screens. Additionally, the Tablet Teach Pendant offers more intuitive programming through its drag-and-drop functionality.
Essential Training for Operators
To maximize the use of the Teach Pendant, FANUC offers meticulously designed training programs, covering fundamental to advanced aspects. The Basic Operator Course focuses on fundamental tasks such as controller cabinet description, robot safety, Teach Pendant operation, safe robot movement, and technical support procedures. The Standard Programming with Teach Pendant course, spanning four days, delves into creating basic programs, executing and testing programs, creating and recovering backup files, and familiarizing with FANUC’s technical support procedures. These training programs combine theoretical lectures with laboratory practices, ensuring that students acquire real skills in handling and programming FANUC robots.
Practical Strategies for Mastering the Teach Pendant
Skill acquisition in using the Teach Pendant is enhanced through various learning strategies. Practical sessions involve direct interaction with FANUC robots and the Teach Pendant in simulated scenarios, allowing operators to familiarize themselves with operations in a controlled environment. Interactive workshops, led by experienced instructors, offer deep immersion into aspects such as programming, troubleshooting, and optimizing robot performance. Online learning modules provide flexibility to learn at one’s own pace, comprehensively covering Teach Pendant operations.
Expert handling of the FANUC Teach Pendant is essential for any professional involved in industrial automation processes. Through a deep understanding of its functions and adequate training, operators can ensure efficient and safe robot operation, significantly contributing to productivity and competitiveness in the modern industrial environment.
FROM JOB CREATION TO PRODUCTIVITY IN THE AGE OF AUTOMATION
In a world where efficiency and competitiveness are essential, industrial automation emerges as a key tool for transforming productivity. However, in countries like the United Kingdom, the adoption of robotic technologies still faces significant challenges.
The Reality of Automation in the United Kingdom
According to recent data from the International Federation of Robotics, the UK ranks 23rd in robot density worldwide, with only 119 robots per 10,000 workers, compared to a global average of 162. Excluding the automotive sector, this figure drops to 69 robots per 10,000 employees.
This low adoption of automation is reflected in the country’s productivity. In the fourth quarter of 2024, British productivity was 0.8% lower compared to the previous year and 19% lower than that of the United States.
Beyond Job Creation
One of the obstacles to adopting automation is the focus on job creation. While generating jobs is important, it is crucial to recognize that automation does not aim to replace workers but to complement their skills. Robots can handle repetitive and dangerous tasks, allowing employees to focus on work that requires creativity and critical thinking.
Additionally, automation can help address labor shortages and skill gaps in the manufacturing industry. By automating certain functions, companies can maintain production without relying solely on a workforce that is often hard to find.
Attracting New Generations
The manufacturing industry faces the challenge of attracting young talent. The perception of monotonous and physically demanding jobs deters many. However, integrating advanced technologies like robotics and artificial intelligence can change this image. Offering a modern and technologically advanced work environment can be key to capturing the interest of new generations.
Looking Beyond Initial Costs
One reason many companies, especially SMEs, hesitate to adopt automated solutions is the perception of high initial costs. But focusing solely on the purchase price of a robot or automated system is a limited view. This is where the concept of Total Cost of Ownership (TCO) comes in.
TCO includes not only the acquisition price but also installation, training, operation, maintenance, energy consumption, and eventual replacement costs. In other words, all the expenses the company will incur over the robot’s useful life.
Adopting this approach allows companies to see the bigger picture: a seemingly more expensive solution may be much more cost-effective in the medium and long term if it reduces downtime, improves energy efficiency, or decreases reliance on external maintenance.
In a context of inflation, skilled labor shortages, and pressure to maintain competitive margins, thinking in terms of TCO is strategic thinking.
The Way Forward
To boost productivity and ensure competitiveness, it is essential to rethink perceptions of automation. Instead of viewing it as a threat to employment, we should highlight its ability to revolutionize the industry, optimize the work environment, and stimulate innovation.
Investing in automation not only benefits large companies but also offers small and medium-sized enterprises the opportunity to expand and adapt to global market demands. By adopting these technologies, the UK and other countries can ensure a prosperous and sustainable future for their manufacturing sector.
It is time to shift the focus from job creation to productivity improvement through automation, recognizing that collaboration between humans and machines is the path to a more efficient and resilient industry.
AUTOMATION IN MOTION: STRATEGIC USES OF AMR IN INDUSTRY 4.0
In the era of intelligent automation, autonomous mobile robots (AMRs) have transitioned from a futuristic vision to becoming key components of modern industrial operations. Unlike automated guided vehicles (AGVs), AMRs do not require fixed infrastructure such as magnetic tapes or predefined routes, allowing them to adapt in real-time to environmental changes using sensors, cameras, LIDAR, and advanced navigation algorithms.
Their ability to collaborate with human workers and other technologies has driven their integration across various sectors, particularly in manufacturing, logistics, pharmaceuticals, and retail. Below, we review five key applications where autonomous mobile robotics are transforming workflows with efficiency, safety, and flexibility.
Material Transport in Manufacturing Environments One of the most widespread uses of AMRs is the internal transport of raw materials, parts, and semi-finished products between workstations. Unlike fixed production lines, AMRs enable flexible and dynamic distribution, adapting to changes in layout or production demand. For example, automotive manufacturers use fleets of AMRs to supply assembly cells just-in-time (JIT), optimizing delivery times and reducing work-in-process inventory.
Automatic Inventory Replenishment in Smart Warehouses In modern logistics centers, AMRs perform replenishment tasks by detecting low stock levels in picking or production areas. Equipped with cloud-connected inventory management systems, the robots can identify which products need restocking and from which location to retrieve them. This functionality is crucial for high-turnover e-commerce operations, where inventory efficiency directly impacts customer responsiveness.
Human-Robot Collaboration in Picking Operations Thanks to artificial vision and autonomous navigation, many AMRs are designed to work alongside human operators in collaborative picking tasks. The robot handles movement and container transport, while the worker picks the products. This approach reduces physical strain on staff, minimizes errors, and speeds up order preparation, especially in warehouses with a wide variety of items.
Internal Deliveries in Hospitals and Pharmaceutical Centers In critical environments like hospitals, AMRs transport medications, biological samples, food, or sterilized clothing between departments without disrupting clinical activity. Their ability to navigate crowded corridors and avoid obstacles makes them ideal for repetitive and sensitive tasks. Additionally, by reducing human contact in certain transfers, AMRs help lower the risk of cross-contamination or medication delivery errors.
Industrial Waste Management and Recycling AMRs are also used for selective waste collection within industrial plants, where they can identify different types of waste (metals, plastics, paper) and transport them to recycling points. Using IoT sensors, some models even monitor container fill levels to optimize collection routes. This application not only improves waste management efficiency but also strengthens companies’ sustainability and regulatory compliance goals.
Technology with Purpose: A Commitment to Efficiency, Safety, and Workplace Well-being The integration of autonomous mobile robots into production chains goes beyond technological improvement: it represents an investment in operational sustainability, workplace safety, and the dignification of human roles in the sector. By taking on monotonous, hard, or high-risk responsibilities, AMRs allow employees to focus on strategic, creative, and supervisory tasks where human judgment is indispensable. This not only enhances work quality but also reduces fatigue, incidents, and job dissatisfaction. In a scenario where industrial competitiveness demands constant agility and adaptability, AMRs are not a trend but an essential tool for building smarter, more resilient, and human-centric factories.
WELDING WITHOUT MARGINS FOR ERROR: THE AUTOMATED PRECISION OF THE MOTOMAN HP20-6 CELL WITH RM2-500 STX
In an industrial environment where precision, repeatability, and efficiency define competitiveness, advanced automation solutions become a strategic necessity. One of the most outstanding for arc welding processes is the Motoman HP20-6 welding cell equipped with the RM2-500 STX positioner, a comprehensive solution designed to meet the highest quality and production demands in sectors such as automotive, metalworking, railways, and heavy machinery.
What makes this welding cell special?
The Motoman HP20-6 is not just a robot; it is the core of an automated work cell capable of radically transforming the way a company approaches arc welding. With six axes of movement and a load capacity of up to 20 kg, this model stands out for its combination of speed, precision, and reach, allowing it to work in complex areas without compromising the quality of the weld seam.
What truly enhances this cell is its integration with the RM2-500 STX positioner, a dual-station unit that allows precise handling and rotation of parts during the welding process. This positioner supports up to 500 kg per station and is designed to maintain the ideal welding angle, reducing downtime and enabling continuous operation without interruptions. The ability to load one piece while welding another is a critical factor in maximizing performance.
Competitive advantages: beyond automation
Constant productivity, without fatigue: Unlike human labor, the Motoman HP20-6 cell can operate during extended shifts without loss of performance, ensuring sustained production rates.
Superior welding quality: Thanks to its high-precision path control and the stability of the RM2-500 STX positioner, typical variations of the manual process are eliminated, ensuring clean seams and uniform penetrations.
Operational safety: The enclosed and programmed environment reduces direct human contact with the electric arc and emissions, improving plant safety.
Long-term cost reduction: Fewer reworks, less material waste, and a significant reduction in human errors translate into accelerated return on investment.
Integration flexibility: Compatible with various MIG/MAG welding sources and vision systems, this cell can adapt to multiple manufacturing requirements.
An investment with guaranteed return
For companies looking to scale their production without compromising quality, this cell represents a turnkey solution that not only improves efficiency but also elevates the technical standard of the final product.
Ready to weld your way into the future? At Eurobots, we connect you with robotic solutions that make a difference. Acquire the Motoman HP20-6 cell with RM2-500 STX and turn your plant into a symphony of automated precision. Visit us at eurobots.net and make your next project speak the language of perfection. Because in a world where every millimeter counts, the future is built with precision.