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Elmo Unveils Smaller, Higher Power Motion Controller and Servo Drives at Automate 2026

Recapping my visit to Automate last month, I had an appointment with Elmo Motion Control. First I’ve talked with them for years. Discovered it is now a Bosch Rexroth company. Some interesting new products.

Elmo, a worldwide leader in servo drive technology, today announced the availability of a new motion controller and new servo drives for a wide range of applications in industrial, harsh, and extreme environments across temperature, altitude, sea depth, humidity, vibration, and more. The new technologies can be seen in the Elmo booth (S-3601) at Automate 2026 in Chicago, June 22-25. 

Elmo is focused on providing the industry’s smallest servo drives and motion controllers with the highest power density and certified functional safety features. These latest products set new benchmarks for power density, expand Elmo’s existing Platinum line, and introduce the Titanium line that brings new levels of multi-axis compactness, intelligence, and safety integration to enable smaller, smarter, and safer systems. The safety functionalities implemented at the drive level reduces the need for much of the safety and hardware cabling.

Elmo’s newest innovations set new benchmarks for power density, expand Elmo’s existing Platinum line, and introduce the Titanium line that brings new levels of multi-axis compactness, intelligence, and safety integration to enable smaller, smarter, and safer systems.

New Levels of Intelligence and Safety

  • Titanium Castanet servo drive: Provides compact dual-axis capabilities with functional safety* in the size of a matchbox
  • Titanium Harmonica servo drive: Ultra-compact dual-axis drive engineered to maximize power density up to 50A/100V, 35A/200V with functional safety*
  • Titanium Maestro motion controller: Next-generation multi-axis motion controller with support for up to 256 axes out of the 16 axes at the Ethercat speed of 100uSec
  • Platinum Jori 30A/60A servo drives: Delivers up to 20/40kW of continuous power in a compact package with functional safety* and introduces SIC (Silicon Carbide) power stage technology
  • Platinum Cymbal servo drive: A rugged package that provides high power up to 17kW in a compact footprint with functional safety*

The new Titanium line simplifies design with multi-axis capabilities. For example, one Titanium Castanet can replace two Elmo Twitter servo drives. The final implementation is almost half the size of two Elmo Twitters, and engineers can synchronize x/y positioning with a single bus rather than having to synchronize two buses. These servo drives integrate a high-performance processor and brings GaN (Gallium Nitride) technology and more advanced technologies to enhance performance and switching efficiency to enable next-generation, intelligent motor systems.

Elmo Servo drives are used in any robotic systems and special technologies, including automated guided vehicles (AGVs)/ and autonomous mobile robots (AMRs), cobots, and exoskeletons. These applications often require a multitude of servo drives that are used independently to manage the position, velocity, and torque of motors for synchronized motion of the overall system. In addition, the same system may need a variety of servo drives to support the different motors, from large motors moving an entire cobot to many small motors operating a small robotic hand. To help engineers achieve this, Elmo servo drives deliver:

  • Compact servo size to minimize physical footprint
  • Industry-leading power density to provide more power in less space
  • Up to 17 certified functional safety features
  • High-precision control to enable accurate, coordinated movement across motors
  • Multi-axis capabilities to shrink systems and simplify design and synchronization
  • Fast off-the-shelf turnaround with quick customization where needed
  • Large-scale availability to support volume production

*In certification process.

Elmo is a Bosch Rexroth company.

ABB GoFa helps test PSYONIC’s Ability Hand for robotics, combining touch sensing, compliant design and human-derived training data

Visitors at Automate witnessed some advances in robotic dexterity. ABB showed off an example.

ABB Robotics is collaborating with California bionics company, PSYONIC, to advance robotic gripping and dexterity using a new approach that utilizes real-world manipulation data from human prosthetic use. By combining the PSYONIC Ability Hand with an ABB GoFa cobot, the collaboration will explore how touch and motion data generated by human prosthetic use can be used to train robots to perform delicate, variable tasks that have traditionally been difficult to automate.

“Human dexterity and the instinctive understanding of how to handle different objects is one of the most difficult things to replicate in industrial-grade robotics, but it’s a fundamental need for truly autonomous and versatile robots,” said Marc Segura, President, ABB Robotics. “As we develop the next generation physical AI, robots will learn and understand the world as we do. This collaboration with PSYONIC will help to close the long-standing gap between human and robot dexterity, opening up new possibilities for a wide range of industries.”

Grasping and dexterity are central to Autonomous Versatile Robotics (AVR) – ABB Robotic’s vision for robots that can sense, reason, move and handle objects with precision in dynamic environments. They are also critical to advancing physical AI in industry: robotic systems that can learn from real-world interaction and apply that intelligence with industrial-grade reliability. The collaboration will explore new applications across numerous industries, including automotive, aerospace, packaging and logistics, and life sciences. By enabling robots to take on tasks that are repetitive, ergonomically challenging or difficult to perform consistently at scale, ABB Robotics and PSYONIC can help people and robots to work together more effectively, while improving productivity, flexibility and workplace safety.

PSYONIC is working closely with ABB Robotics’ R&D team on integration and development, exploring how touch-enabled manipulation can support next-generation autonomous robotics applications.

Revolutionizing robotic dexterity with human-generated data

Originally developed for prosthetic use, the PSYONIC Ability Hand combines myoelectric control, touch sensing and compliant mechanics in a lightweight, multi-articulating design. Its pressure sensors and vibration feedback system enable users to detect contact, grip force and release, while flexible fingers conform naturally to irregular and deformable objects. 

“Dexterous manipulation is ultimately a data challenge as much as a hardware challenge,” said Dr. Aadeel Akhtar, Founder and CEO of PSYONIC. “By using the same Ability Hand on people and on robots, we can capture high-fidelity real-world data on movement, contact and grip force, then use that to train robotic systems more effectively. Integrating with ABB Robotics’ robotics platform allows us to expand into more environments and unlock the level of dexterity needed to take on the hardest challenges in automation.”

To support this work, ABB Robotics’ GoFa provides the accuracy and repeatability required for industrial-grade deployment, ensuring that subtle variations in grip force, finger positioning and movement can be consistently executed and evaluated. This level of precision is critical for translating human-derived manipulation data into reliable robotic performance across complex, variable tasks.

The collaboration will evaluate how this combined capability can be applied across industrial use cases where traditional gripping technologies struggle with variability, fragility or complexity – such as handling irregular or delicate objects. According to the International Federation of Robotics (IFR), advanced gripping and digital integration can reduce engineering time by up to 30%, underlining the importance of end-of-arm tooling in accelerating deployment and improving automation ROI.

It also reflects ABB Robotics’ broader strategic approach of working with partners across its ecosystem to overcome long-standing barriers to automation. By combining robotics, AI and real-world manipulation data generated through human prosthetic use, ABB Robotics is advancing physical AI and enabling more capable, adaptable robots to operate reliably in real-world environments.

Kawasaki Robotics Unveils Dexterous Physical AI Robot Platform at Automate 2026

Most of what I saw at Automate related to robotics. This news from Kawasaki.

New RL030N 8DoF robot platform for Physical AI applications, patented Pulseboard inspection technology, and next-generation automation systems highlight company’s vision for intelligent industrial automation.

Featured innovations include the debut of the new RL030N 8 Degree of Freedom (DoF) robot platform designed for Physical AI applications, Kawasaki Robotics’ patented Pulseboard inspection technology demonstrated in a live robotic weld inspection system developed with Fives DyAG, and the introduction of the new MXP360L and BA013L industrial robots. Demonstrated throughout Kawasaki Robotics’ booth (S-2201), these technologies showcase intelligent automation systems capable of advanced motion control, precision inspection, and flexible manufacturing.

RL030N robot is the industry’s first 8-axis robot designed specifically for Physical AI applications. It combines high-speed motion, enhanced dexterity, lightweight construction, and real-time external orchestration capabilities for dynamic and confined environments.

Unlike conventional industrial robots optimized for repetitive tasks, the RL030N supports AI-driven applications requiring adaptive motion, obstacle avoidance, confined-space manipulation, and complex motion planning. Its unique 8DoF architecture adds an additional articulation axis, providing greater dexterity and flexibility than traditional 6-axis robots.

The RL030N is powered by Kawasaki Robotics’ open KRNX real-time control API, enabling external AI software, ROS environments, machine learning systems, vision platforms, and third-party orchestration systems to directly control the robot in real time.

Kawasaki Robotics will also demonstrate its patented Tool Tip Displacement Output Function technology, known as Pulseboard, integrated into an advanced robotic weld inspection solution developed with partner Fives DyAG. The system combines a Kawasaki RS013N robot, a laser 3D profile camera, and Kawasaki’s high-speed motion synchronization technology to improve inspection performance for complex weld geometries and curved surfaces.                                                                                         

Unlike conventional inspection systems that require robots to stop repeatedly for image capture, Pulseboard continuously synchronizes image acquisition in real time with the robot’s tool-tip displacement. This enables high-resolution imaging even during acceleration and deceleration, resulting in a robotic inspection system capable of up to 10x faster weld inspection, reduced setup requirements, precise defect localization, and high-speed inspection without sacrificing accuracy.

Kawasaki Robotics will also showcase the BU015X 7-axis robot in an adhesive dispensing and inspection demonstration developed with Coherix. Designed to simulate a real-world automotive production environment, the system applies sealant to a Ford F-150 door skin while continuously measuring and automatically adjusting adhesive bead placement in real time at speeds of up to 400 times per second.

Combining Kawasaki Robotics’ hollow-arm robot design with Coherix’s 3D laser-based Adaptive Process Control technology, the system uses machine learning and real-time process optimization to help manufacturers reduce defects, material waste, labor costs, and rework while maintaining full production-line speeds.

The BA013L 13 kg arc welding robot will make its debut inside a compact welding cell designed for high-performance welding applications. The cell features the BA013L robot, Kawasaki PST500-L2 dual-axis positioner, Rollon Glider RTU, Strong Hand welding table, and Miller welding power source to demonstrate flexible, high-precision automation.

Built for demanding production environments, the robot features a redesigned architecture with a 50 mm hollow wrist for internal cable routing along with support for high-current welding torches, reduced cable wear, and improved accessibility. High-speed axis performance reaching 730°/s and an extended 2,093 mm reach help improve cycle times while maintaining weld quality.

The MXP360L features a 360 kg payload capacity, extended reach, and advanced vibration-control technology for heavy-duty material handling applications. At Automate 2026, the robot will be displayed handling a Kawasaki Z125S motorcycle on a Rollon RTU linear axis. Kawasaki Robotics will also feature collaborative robot demonstrations, including CL Series welding carts and a sanding application using a FerRobotics sanding tool.

Teradyne Robotics Unveils Wide Range of Production-Ready Physical AI Applications at Automate 2026

Get used to it—robots are now physical AI. I didn’t even like that part of marketing when I practiced it. Anyway, new applications from Teradyne.

Teradyne Robotics, the company behind Universal Robots (UR) and Mobile Industrial Robots (MiR), demonstrated how physical AI is transforming industrial automation at Automate 2026 in Chicago, June 22-25. 

“Physical AI is on full display across our robotic solutions at Automate,” said Jean-Pierre Hathout, President of the Teradyne Robotics Group. “The demos we are presenting are real and deployable. Manufacturers can purchase the physical AI‑enabled applications we have on display, including our first physical AI-product the MiR1200 Pallet Jack, today – delivered through our global ecosystem of system integrators and partners – to automate tasks that have traditionally been difficult or impractical for robots, including those in dynamic and unstructured environments.”

The foundational layer for physical AI advancements is PolyScope X, UR’s next-generation software platform: PolyScope X still relies on the powerful motion-control foundation that has defined UR for decades, while modernizing the operator experience on a state-of-the-art technology stack. This includes modern web technologies, containerized applications and native ROS 2 support, which allow developers and engineers to program automation applications the way they are most comfortable.   

PolyScope X also introduces Logic Programs, continuously running, multi-threaded programs that execute in parallel with the main robot program. This native, PLC-style background logic lets programmers coordinate and control multiple work cell components, exchange data, and, in many deployments, reduce or replace external PLCs, running independently of safeguard stops, program pauses, and robot power state.

Teradyne Robotics’ booth highlights the company’s strategic focus on the infrastructure of the future, specifically addressing the needs of electronics manufacturers and AI data centers:

  • The UR AI Trainer: Developed with Scale AI, UR’s imitation learning platform allows users to physically guide a UR robot through tasks like smartphone packaging, capturing high-fidelity, force-aware data to train sophisticated Vision-Language-Action (VLA) models for direct factory deployment. The AI Trainer also supports integration with cloud services, with examples of how users can take data from the Trainer to train the NVIDIA GR00T open VLA model or use the NVIDIA Isaac Sim open simulation framework to validate and test robot behavior. 
  • Generalist: Two UR12e robots running autonomously on Generalist’s GEN-1 model, showcasing complex dexterous manipulation capabilities. Shown here leveraging the high-quality motion and reliability of the Universal Robots platform, GEN-1 is a class of general-purpose robotic foundation models delivering general intelligence from the physical world at levels of speed and reliability that demonstrate traction toward the practical thresholds required for real deployments.  
  • Cambrian: Directly supporting the global build-out of AI infrastructure, this demo uses dual-arm UR7e robots and Cambrian’s AI vision system to identify and insert copper cables into high-density server racks, a process traditionally plagued by manual errors and labor shortages.
  • On-the-fly learning: Physical AI in action
  • The booth features a diverse range of demos from ecosystem partners leveraging UR robots and MiR AMRs to perceive and react to the “messy reality” of the industrial world:
  • AICA: Showcases how a UR7e robot executes learned trajectories from human demonstrations that are both adaptive and force-sensing. The robot picks up a metal part and buffs it against a polishing wheel, matching the speed and applied force of an operator with only a single demonstration.
  • beRobox (PALTZ) + MiR Mobility: The PALTZ palletizer utilizes AI vision to redirect a UR20 robot on the fly, picking up boxes even if they have shifted orientation. In the demo, the AI-enabled Pallet Jack and the MiR600 operate directly alongside the beRobox palletizer, retrieving pallets, exchanging positions, and returning them to their original locations to clearly showcase coordinated material flow. Together, this creates a flexible, mobile system that moves between tasks and locations without fixed infrastructure, providing a practical, end-to-end alternative to humanoid robots.
  • Mobile cobot + ROEQ: A similar alternative to humanoids is showcased next to the beRobox demo where a MiR250 equipped with an ROEQ conveyor topper transfers a box to a conveyor. The conveyor then moves the box to the end of the line, where the MC250 mobile cobot picks it up, transports it back to the MiR250, and places it for the process to repeat.
  • Maple Advanced Robotics Inc.: An Autonomous Spot Sanding Solution that requires no CAD models or manual teaching; an operator simply marks defects, and the system, powered by a UR8L robot, automatically scans and applies the correct finishing recipe.
  • Trener Robotics: Acteris is an AI-native platform with a conversational interface that allows operators to deploy robotic machine tending jobs via simple chat input in any language, setting up new tasks handled by a UR7e robot in just 1–2 minutes.
  • Vention: The Rapid Operator AI is a bin picking solution achieving a 99% first-pick success rate, configured in minutes with zero programming. The system uses a UR12e robot and 3D vision to handle unstructured parts for real-time identification.

Hirebotics Launches Industry’s First No-Code​,​ Explosion-Proof Cobot Solution for Painting

I have been a bit under the weather with some good-old Midwest summer allergies. Add that to an overdose of World Cup soccer, and I have been out.

Time to catch up.

A decade ago, I would have declared robot end-of-arm-tooling a mature, unexciting technology. That plus manufacturing employment discussions in America—what with going overseas thanks to the beancounters.

Caught up with Matthew Bush, CEO of Hirebotics, at Automate last month. Hirebotics manufacturers robotic end-of-arm tooling with a newly released product. Mostly we discussed the shortage of workers and how we will need more tooling and automation in order to produce what we as a society will be needing in the future.

As for new products announced at the show, check out this Cobot painter produced with FANUC.

Hirebotics, a leading provider of collaborative robot (cobot) solutions for metal fabrication, announced the first explosion-proof cobot solution built using its no-code Beacon platform and the FANUC CRX-10iA/L Paint hardware. Hirebotics’ Cobot Painter is available now, offering metal fabricators and manufacturers a practical, high-mix, low-volume alternative to manual spraying and complex automated lines.

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​​​In the past, ​​fabrication shops and other manufacturers ha​​d ​​to outsource coating work, as traditional automation lines were ​​too costly and complex. ​This ​resulted in a loss of ​​control over lead times, quality, and profit margins. ​Compared to ​traditional automated paint systems that require dedicated cells and major exhaust or conveyor infrastructure overhauls, the portable, lightweight Cobot Painter works inside a manufacturer’s existing manual spray environment. ​This means ​the solution can be deployed and working within days rather than months.​    

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“The Cobot Painter eliminates th​​e​​​ ​need for dedicated paint cells and complex programming,” said Matt Bush, co-founder and CEO of Hirebotics. ”By combining FANUC’s world-class, explosion-proof hardware with our intuitive, no-code Beacon platform, we’ve created an affordable, flexible finishing solution. Shops can now bring their coating in-house, deploy automation in days inside their existing booths, and deliver the flawless finishes their customers expect. And they can do it all without a single robotics specialist on staff.”

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Hirebotics’ Cobot Painter brings robotic spray painting to manufacturers who need a flexible, affordable alternative to traditional paint booths and manual spraying to handle liquid paint and powder coating with repeatable precision. (Image from Hirebotics)

FANUC CRX-10iA/L Paint cobot is the first explosion-proof collaborative paint robot on the ​​market​ ​approved for liquid painting, powder coating, and gel coating applications in hazardous environments. Featuring a 55.82-inch reach, the cobot handles large and complex parts with repeatable precision, delivering a consistent coat every time while significantly reducing paint waste and overspray.

Like Hirebotics’ welding and cutting solutions, the Cobot Painter is designed to be fully accessible to operators without robotics or programming experience. Using the Beacon interface on any tablet or phone, operators can simply use “click-and-teach” paths to guide the robot through the motions once. The cobot then flawlessly repeats the exact speed, distance, and angle for every cycle.    

“Built on the CRX-10iA/L Paint cobot, the system brings the safety and precision of explosion-proof automation into standard manual coating environments,” said Dave Wagenhauser, Manager of Paint Robot Sales, FANUC America. “The CRX Paint series is designed to deliver consistent, high-quality performance in painting and finishing applications, combining collaborative safety features, ease of deployment, and FANUC’s proven reliability for manufacturers seeking flexible automation. Our collaboration with Hirebotics and its Beacon platform further streamlines setup and programming, helping reduce integration complexity and enabling faster deployment in high-mix, low-volume production environments.”

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Hirebotics’ Cobot Painter currently supports stationary painting, with parts placed in a paint booth ​​where​​ robots perform all spraying operations. Future versions will support line tracking, with the robot tracking and painting parts while in continuous motion along a production line. 

Festo Cuts EOAT Air Use and Improves Grip Control with VTUX Eco Functions 

Between an overdose of World Cup soccer and being a bit under the weather, I’m two weeks behind catching up on my two days at Chicago’s McCormick Place with many friends at this year’s Automate Trade Show and Conference.

Festo always surprises with their technology. I remember visiting the company in Germany maybe a couple years ago wondering why travel so far to discuss pneumatics. Isn’t that old school? Well, not.

To the advanced technology for pneumatics applications, the company added advanced training with its Didactics group.

The TL;DR:

  • Scalability, multi-protocol platform, valve terminals
  • Didactic, custom on site education tech shifts development
  • Integrated vacuum, adaptive pressure control, and multi-protocol connectivity improve robotic handling performance.

Let’s check out robot end of arm tooling.

At the robot end of arm tool (EOAT), excess weight slows motion, continuous vacuum wastes compressed air, and undetected grip loss leads to dropped parts and unplanned downtime. Many pneumatic systems at the end of arm still fall short on all three functions.

The Festo VTUX valve terminal addresses these issues. The VTUX is a modular valve terminal that integrates pneumatic control, vacuum generation, and I/O into a single platform mounted at the point of actuation. New eco functions and a multiprotocol interface extend that platform with lower air consumption, improved grip visibility, and simpler integration.

On the vacuum side, VTUX uses threshold-based control to generate vacuum only when needed. Instead of continuous air consumption, the system maintains vacuum within defined limits and only consumes air when levels fall outside those limits. This reduces compressed air use by up to 20-30% while maintaining a stable grip.

On the pressure side, eco functions reduce air consumption to actuators by dynamically adjusting pressure to match the load and motion profile. After a short learning phase, the system determines the minimum pressure required to complete the motion and eliminates excess air use. Eco functionality delivers up to 40 percent reduction in compressed air consumption while maintaining the required actuator performance.

Sensors and processing built into the VTUX provide pressure and vacuum data at the point of use. Functional integration gives OEMs simpler specification and reduced assembly.  

The VTUX is designed for decentralized installation and can be mounted directly on moving elements or positioned anywhere on the machine. Its lightweight polymer construction reduces moving mass, while its modular architecture allows systems to be configured and expanded as requirements change. 

Locating control closer to actuation reduces tubing length, improves response time, and lowers overall energy consumption. VTUX valve terminals have a resilient supply chain and are assembled and tested prior to shipment at Festo’s Regional Service Center in Mason, Ohio.

Decentralized Intelligence and Networking

As machine architecture becomes more distributed, original equipment manufacturers (OEMs) increasingly need cost-effective ways to add valves, diagnostics, and sensor connectivity without redesigning existing control systems or maintaining multiple communication configurations across global platforms.

Addressing these challenges, the new CTED module provides a decentralized, low-cost “third option” for expanding VTUX valve terminal networks, allowing OEMs to add valves without re-engineering the host architecture.

CTED modules are configurable to major fieldbus protocols, including EtherNet/IP, PROFINET, EtherCAT, CC-Link, and Modbus TCP. 

The CTED multiprotocol capability eliminates the need to stock various communication modules or valve terminals for different control architectures. It simplifies specification and inventory management across different control architectures and global markets.

CTED utilizes a serial interface rather than a parallel bridge. This shift allows VTUX valve terminals to deliver diagnostic data and sensor feedback directly through the terminal. Because sensor feedback travels directly through the serial link, the system provides expanded diagnostic data for machine operation and maintenance.

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