Universal Robots: results, cobots and factory applications

Annual results and the industrial robot market

Universal Robots, the cobot manufacturer based in Denmark, generated revenue of $304 million in 2023, down 7% from 2022. Its results coincided with a contraction in North American industrial robot orders: companies ordered 31,159 robots during 2023, a decline of 30%, according to the Association for Advancing Automation. CIM Systems pointed to delayed projects and economic concerns, while Wauseon Machine described extra inventories accumulated during the pandemic. Reuters covered the market figures on Feb 12, 2024.

Universal Robots’ fourth-quarter revenue reached $103 million, up 21% year on year. The UR20 and UR30 together accounted for 30% of quarterly revenue. These company figures cover a different business and geographical scope from the North American order total.

From an articulated arm to a wider platform

Universal Robots was founded in 2005 following research at the University of Southern Denmark. Its development work addressed reprogrammable robots and flexible automation for changing production requirements. The first commercial product, the UR5, arrived in 2008 as a six-jointed articulated arm. The UR10 followed in 2012, extending the range to tasks requiring a ten-kilogram lifting capacity. A smaller, tabletop model, the UR3, joined the portfolio in 2015 for light assembly and workbench applications.

Teradyne acquired Universal Robots in 2015. The following year brought two additions beyond robot arms: the UR+ partner ecosystem and Universal Robots Academy. The e-Series generation followed in 2018. By 2020, the company had passed 50,000 cobots installed worldwide. These milestones belong to the company’s historical development; the product, software, training and customer descriptions below use its reference material available in October 2026.

The shared Odense headquarters

Universal Robots and Mobile Industrial Robots, known as MiR, celebrated the opening of their shared headquarters in Odense on May 14, 2024. Both companies belong to Teradyne Robotics. The premises cover 20,000 square metres and bring the two organizations together at one headquarters. MiR’s business centres on autonomous mobile robots, while Universal Robots supplies collaborative robot arms. The opening brought representatives from both companies’ partner networks to the same location.

NVIDIA and Siemens attended the event following collaborations with Teradyne Robotics and its companies. A panel brought together representatives of those businesses to discuss physical AI and advanced automation. MiR also highlighted its recently launched MiR1200 Pallet Jack. The shared premises were intended to bring teams and partner activities together, with each business continuing to address its own part of industrial automation.

Reach and payload in the current hardware range

The current UR20-1750 and UR30-1300 listings pair different reaches with different payload ratings. The UR20-1750 has a reach of 1,750 millimetres, a standard payload of 20 kilograms and an extended rating of 25 kilograms. Its listed weight is 64 kilograms. The UR30-1300 has a shorter reach of 1,300 millimetres, with standard and extended payload ratings of 30 and 35 kilograms respectively, and a weight of 63.5 kilograms.

Both models have a listed footprint diameter of 245 millimetres. Their shared features include tapered tubes, a programmable status light ring and an eight-pin tool connector at the flange. Universal Robots lists palletizing, material handling and machine tending among applications for both models. It also associates the longer-reaching UR20 with welding and the UR30 with high-torque screwdriving and handling heavier workpieces.

Partner equipment through UR+

The UR+ program connects Universal Robots with suppliers of tooling, sensors, vision systems, software, accessories and complete application kits. Its marketplace separates individual components from software modules and finished solutions. Components include grippers, tool changers, parts feeders, protective covers, range extenders and vertical lifts. Software categories include file management, remote access, simulation, calibration and machine interfaces. Application kits address tasks such as welding, dispensing, case erecting, palletizing and surface finishing.

URCaps provide the integration layer through which partner equipment can expose functionality within PolyScope. Setup, calibration, diagnostics and operation can appear in the robot’s interface. The wider system can still be orchestrated through a programmable logic controller, an industrial computer or another higher-level controller. URCaps can coexist with lower-level URScript execution and external controller triggers, giving integrators several ways to coordinate a robot with its surrounding equipment.

PolyScope X and reusable programs

Universal Robots presented PolyScope X at automatica in Munich on Jun 27, 2023, initially targeting machine tending with frequent changes between smaller production batches. A prototype had previously appeared at IMTS in 2022, and customers and partners participated in development. The current PolyScope X platform includes browser-based offline programming and a file format that packages application and program data for export from one robot and import into another.

An operator screen provides an interface for production changes, while modules and functions let developers reuse program elements. Functions can call other functions, and the editor supports copying or moving multiple program nodes together. Coloured nodes distinguish types of instructions and their relationships in the program tree. A world-centred view supports positions relative to frames and other waypoints. These are software organization and interface features; the company’s associated claims about shorter deployment or changeover times remain dependent on the application.

Hardware for AI application development

The AI Accelerator combines computing hardware, a vision camera and software integration for developing AI applications with Universal Robots’ cobots. Its listed hardware includes an NVIDIA Jetson Orin AGX module with 64 gigabytes of memory and an Orbbec Gemini 335Lg three-dimensional camera. Camera mounting parts, a flange extender, cabling, cable guidance and a USB cable accompany the computing and sensing equipment. The toolkit builds on PolyScope X and supports development involving computer vision and motion capabilities derived from trained models.

Universal Robots offers the accelerator alone and in bundles that add a control box or an e-Series robot. Developers can use it to create applications rather than designing the computing and camera package entirely from separate purchases. The company provides developer resources for the software alongside the hardware. Its product description identifies ROS 2 support and access to the computing system through the platform. It does not specify one finished inspection, handling or assembly process for every purchaser.

Tools for developers and integrators

The UR Developer Suite brings together resources for extending robot software, adapting tools and integrating hardware. URCap tools support custom interfaces and third-party devices. URScript provides a separate programming route. Hardware and motion resources include computer-aided design files, wiring diagrams, manuals, mounting guides and the parameters used to describe robot geometry. Communication resources cover interfaces including EtherNet/IP, Modbus TCP, PROFINET and ROS or ROS 2, connecting the robot platform to different industrial control environments.

Documentation sits alongside tutorials written by the teams responsible for the tools. Community routes include a forum, a Discord channel, a professional networking group and GitHub examples. A beta program provides early access to updates and a route for reporting bugs or submitting feedback. These resources address different parts of an integration project: software extensions, physical interfaces, communications and application development. Access to the collection is organized through a single developer area rather than through one robot-specific product page.

Learning formats at Universal Robots Academy

Universal Robots Academy combines free online learning with instructor-led training. Its e-Learning catalogue includes e-Series Core, Pro and Application tracks, as well as material for the earlier CB3 platform. A PolyScope X learning track uses a factory-floor scenario involving a UR20 to introduce the newer interface. The academy also links to video tutorials covering programming examples, troubleshooting and repair, and to an education program for schools, colleges and universities.

Instructor-led options include classroom and virtual courses delivered by certified trainers. On-site training brings courses to the customer’s own premises, allowing teams to learn without travelling to a training centre. The academy presents these formats alongside self-directed material, rather than treating an online module, a classroom course and workplace instruction as the same service.

Courses for different technical responsibilities

The current training catalogue separates courses by technical subject and delivery format. Users can filter listings by country, provider and language. Universal Robots facilities and authorized training partners both deliver courses, while simulator-based sessions appear alongside classroom and virtual instruction. The subject categories extend from initial operator training to software development and maintenance:

• Core and advanced courses cover PolyScope 5 and PolyScope X.
• Interfaces and industrial communications courses address connections with other equipment.
• Script and basic URCap courses concern programming and extensions.
• Service, troubleshooting and safety courses serve distinct technical responsibilities.

The catalogue also includes hands-on operator training. Course categories and provider filters describe the range of instruction; they do not establish that every course has a scheduled session in every location. Availability remains attached to the individual course listing.

Support beyond the initial robot purchase

Universal Robots’ service offering includes technical assistance, preventive maintenance and on-demand support. The myUR customer portal provides a place to register robots, obtain software and submit support requests. Virtual and on-site assistance form part of the support routes. Manuals, videos and other technical resources are available separately from a request for a service visit.

The company also offers rental through its financial services operation. That is a different commercial route from buying a robot outright. Service, financing and training sit alongside the hardware range, with their own arrangements rather than one universal package attached to every installation.

What the service plan adds

UR Care service plans use a fixed annual charge for a tailored selection of services. The listed provisions include repairs and spare parts, together with the possibility of requesting a robot on a time-limited loan when equipment needs servicing or decommissioning. Priority handling of support tickets is another listed feature. The loan arrangement concerns temporary replacement equipment rather than an additional permanent robot purchase.

The current plan page also offers a 20% discount on training through more than 130 training centres, live virtual simulator sessions or on-site courses. Customers can request a customized plan. These are commercial provisions offered by Universal Robots; the page’s promises of uninterrupted production and predictable ownership costs are not independent measurements of customer uptime or expenditure.

Palletizing whole-grain products in Oregon

Bob’s Red Mill in Milwaukie, Oregon, in the United States, uses a UR20 within Columbia/Okura’s miniPAL+ palletizing system. The food manufacturer introduced the cell on a smaller production line whose space and handling requirements differed from those of its larger robot installations. The packaged system includes a PIAB vacuum gripper, safety area scanners, radar, guarding and Rocketfarm’s Pally palletizing software.

Bob’s Red Mill reported an operating requirement of seven to eight cases a minute, a target of ten to twelve and a system capacity of fourteen. The company also reported reallocating four operators across four shifts from manual stacking to other work, including quality inspection. The installation handles boxes weighing between four and ten pounds and pallets stacked to a height of 81 inches. Pally manages the pallet patterns and packaging changes for the installation.

Machining components for truck campers

Go Fast Campers in Bozeman, Montana, manufactures components for customized pop-up truck campers using four cobot-assisted Haas machining cells. The installation combines UR5 and UR5e robots with Robotiq gripping equipment and Autodesk Fusion 360. The company produces 174 different parts from aluminium stock prepared in seven standard sizes. A common robot program supports the cells, with part and stock information determining the production job rather than a separate robot program for every component.

Go Fast Campers reported handling twenty to twenty-five jobs across the four machining centres each day, with changeovers of ten to fifteen minutes. It also reported about twenty-two hours of daily machine time, including six hours without an operator present. Those are customer-reported figures for this installation. The company’s engineering team used the robot’s inputs and outputs to coordinate auxiliary equipment, including doors, workholding and part extraction. Universal Robots’ application engineers also provided communications advice during its development work.

Welding supports at Centerline Brackets

Centerline Brackets in Florida uses a Vectis Cobot Welding Tool incorporating a Universal Robots arm to weld steel supports for countertops, shelves and shower benches. The business previously relied on manual welders. It reported reducing the time per bracket from seven or eight minutes to one minute or less, and matching its previous output with two welders and a cobot rather than eight welders. It attributed the staffing change to turnover and difficulty filling vacancies rather than layoffs caused by the installation.

The company reported recovering its investment in less than three months, a result specific to its own costs and workload. Four product programs were stored on the teach pendant. Centerline also bought a second Vectis system as a backup, while considering aluminium products as a possible later application. That prospective use was separate from the existing steel-bracket work. Centerline’s management also associated the installation with shorter working days and less overtime.

Changing wine cartons at the end of a bottling line

Raumland GmbH, a family-owned wine bottling business in Germany, uses a UR20 in Robotiq’s PE20 palletizing system. The company handles analysis, filtering, labelling, bottling and shipping for wine producers. It reported processing more than five million bottles and 2,500 different wines annually. At the end of the bottling line, the robot stands between two Euro pallets and uses a wide vacuum gripper to handle wine cartons arriving from the conveyor.

The arrangement allows an employee to remove a completed pallet while the robot stacks cartons on the other. Different customers’ cartons have their own saved programs, selected through the teach pendant when production changes. Raumland reported that manual stacking previously involved moving a combined package weight of up to forty tonnes during an eight-hour shift. Its management associated the automated cell with reduced physical workload and stated that no employee lost their job. Those statements concern Raumland’s own installation and employment experience.