Universal Robots

Acquired by Teradyne · 2015 · $285M

Universal Robots (UR) was founded in 2005 in Odense, Denmark by Esben Østergaard, Kasper Støy, and Kristian Kassow, who met at the University of Southern Denmark and set out to build lightweight, reprogrammable robot arms accessible to small and mid-sized manufacturers. UR shipped its first commercial cobot, the UR5, in 2008, effectively creating the modern collaborative robot category. The product line has since expanded to include the UR3, UR10, UR16, UR20, and UR30, along with the UR AI Accelerator platform unveiled in 2024. Universal Robots was acquired by US test-equipment maker Teradyne (NASDAQ: TER) in June 2015 for approximately USD 285 million plus earn-outs. UR continues to operate as a Teradyne subsidiary headquartered in Odense; it does not trade separately, and all public disclosures roll up into Teradyne's Robotics segment. Universal Robots reported record annual revenue of USD 293 million in 2024 (Teradyne Robotics segment total USD 365 million including Mobile Industrial Robots / MiR). Teradyne Robotics counts more than 1,400 employees globally and has shipped over 75,000 cobots to date. Jean-Pierre "JP" Hathout was appointed President of Universal Robots in May 2025 and President of Teradyne Robotics Group in September 2025.

Universal Robots invented the cobot category and remains the global volume leader, with a deployed base most competitors will spend a decade trying to match.

universal-robots.com Cobot

Denmarkacquired

At a glance

Total raised

$285M

last round acquisition by teradyne

Headcount

1001-5000

approximate · public range

Headquarters

Odense

Denmark

Founded

2005

21 years active

Status

Acquired

by Teradyne

Latest valuation

$285M

Acquisition by Teradyne · 2015

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Funding history

Total raised

$285M

Rounds tracked

Latest stage

Acquisition by Teradyne

Latest valuation

$285M

Date	Stage	Amount	Valuation	Lead investors
May 13, 2015	Acquisition by Teradyne	$285M	$285M	Teradyne

Founder backgrounds

Esben Østergaard

Co-founder, former CTO

Co-founded Universal Robots in 2005 alongside Kristian Kassow and Kasper Støy, and served as the company's CTO. The trio's work emerged from robotics research at the University of Southern Denmark, where Østergaard's academic background in computer science and modular robotics shaped the company's founding technology. Prior to Universal Robots, his research focused on distributed robot control architectures and modular systems — work that directly informed the company's intuitive, force-sensing arm that operators could program by hand-guiding, without a traditional teach pendant. The company was acquired by Teradyne in 2015 for a reported $285 million upfront (plus earn-outs), a significant Danish tech exit. A consistent public advocate for democratizing industrial robotics, Østergaard has long argued that the real breakthrough was not technical complexity but simplicity — making the first collaborative robot that SMEs could actually deploy without specialized engineers.

Kasper Støy

Co-founder

A roboticist by training, Støy earned his PhD from the University of Southern Denmark (SDU), where his research centered on modular self-reconfigurable robotics and swarm intelligence. He was a researcher at SDU’s Maersk Mc-Kinney Moller Institute before co-founding Universal Robots in 2005 alongside two fellow SDU peers. That academic grounding in lightweight, accessible robotics directly informed the company’s breakthrough: the world’s first commercially viable collaborative robot arm. Støy stepped away from daily operations after Teradyne’s 2015 acquisition but remains a shareholder.

Kristian Kassow

Co-founder

Co-founded Universal Robots in 2005 alongside Esben Østergaard and Kasper Støy, spinning out from robotics research at the University of Southern Denmark in Odense. Prior to the venture, the team had developed the core technology for lightweight, programmable robotic arms — the foundation of what became the world's first commercially viable collaborative robot. Kassow served as CEO through the company's early growth phase, leading it to become the global category leader in cobots before its acquisition by Teradyne in 2015 for roughly $285M. After leaving Universal Robots, he went on to found Kassow Robots in 2017, a competing cobot manufacturer based in Copenhagen.

AI bull / bear

Bull case

Universal Robots sits on an unrivaled moat: it created the cobot category in 2008 and has since shipped over 75,000 units—a deployed base that gives it a multi-year data advantage and ecosystem lock-in competitors cannot replicate quickly. With USD 293 million in 2024 revenue and fresh leadership under JP Hathout, UR is pushing AI-driven automation (the UR AI Accelerator platform launched in 2024) and defending its IP aggressively. A recent German court injunction against Elite Robots for copying UR's designs signals that both regulators and customers recognize UR's technological leadership. As manufacturing labor shortages intensify and SMEs demand turnkey, reprogrammable automation, UR's brand, distribution, and installed base position it to capture the lion's share of a cobot market that remains early innings. Teradyne's backing provides capital and credibility; UR can out-invest startup rivals on R&D and go-to-market while maintaining category ownership.

Bear case

Despite inventing cobots, Universal Robots' growth has stalled relative to the hype: USD 293 million in 2024 revenue, nearly a decade after Teradyne's USD 285 million acquisition, suggests modest organic expansion and a market that may be smaller or slower than bulls assume. Chinese vendors—led by firms like Elite Robots—are flooding the zone with lower-cost alternatives, and even a favorable German injunction won't stop pricing pressure or copycat innovation globally. UR's product line (UR3 through UR30) remains focused on traditional arm form factors, while newer entrants experiment with humanoids and mobile manipulation. The UR AI Accelerator is still unproven at scale, and many factories cite integration complexity and ROI uncertainty as barriers to cobot adoption. If Teradyne views Robotics as a subscale segment, UR risks underinvestment or eventual divestiture, ceding the category it created to hungrier, venture-backed disruptors.

Generated by claude-sonnet-4-5-20250929 · April 25, 2026Refreshes quarterly · see disclosures

In the news

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Leadership

Esben Østergaard

Co-founder, former CTO

—

Kasper Støy

Co-founder

—

Kristian Kassow

Co-founder

—

Jean-Pierre Hathout

President

—

Products

UR3e
The smallest collaborative industrial robot arm, with a 3 kg payload and 500 mm reach, ideal for assembly, dispensing, and material handling. Its compact form fits tight workspaces such as bench-tops or within production machinery. Part of the e-Series platform, it features an integrated force/torque sensor, enhanced motion control, and intuitive programming interface. The UR3e was introduced at Automatica 2018, initially alongside the UR5e and UR10e.
UR5e
Six-axis e-Series collaborative robot with 5 kg payload and 850 mm reach. The most widely deployed cobot in the UR e-Series lineup, covering the broadest range of industrial automation tasks in its class with ±0.03 mm repeatability. Built-in 6-axis force/torque sensing on all joints, 17 configurable safety functions, and full EN ISO 13849-1 PLd Category 3 compliance enable safe shared-workspace operation. Targets assembly, machine tending, pick & place, quality inspection, packaging, lab automation, dispensing, and screwdriving applications with PolyScope graphical programming. Introduced as part of the e-Series launch in June 2018.
UR10e
Medium-sized e-series collaborative robot arm combining a 12.5 kg payload with 1300 mm reach. The UR10e is distinguished by its built-in 6-axis force/torque sensor, improved precision (±0.05 mm repeatability), and redesigned teach pendant. It addresses machine tending, palletizing, and packaging applications. Payload was increased to 12.5 kg in May 2021, with shipments beginning June 2021.
UR16e
Six-axis robot arm with 900 mm reach and 16 kg payload, positioned as the heavyweight of Universal Robots' e-Series lineup. Built-in force-sensing technology and collision detection enable work alongside humans without safety barriers. Programs via 12-inch touchscreen with PolyScope graphical interface. Offers 21 configurable safety functions, compliant with ISO 13849-1 (PLd Category 3). Designed for machine tending, material handling, packaging, material removal, and screwdriving applications, handling heavy wrist tools and multi-part picks for shorter cycle times.
UR20
Heavy-payload collaborative robot with 25 kg payload and 1750 mm reach, designed for palletizing, machine tending, welding, and material handling. Offers the longest reach of Universal Robots' heavy payload cobots. Features new joint architecture enabling up to 65% speed increase and 25% higher joint torque, with 64 kg weight despite being UR's heaviest robot. Began shipping in Q2 2023.
UR30
Six-axis collaborative robot introduced in late 2023, designed to tend larger machines, palletize heavy products and support high-torque screwdriving. Up to 35 kg payload and 1300 mm reach in a compact footprint with ±0.1 mm repeatability. Builds on the UR20 architecture, offering superior motion control and lift in a compact form, with 25% more torque than prior models. Equipped with 17 integrated safety functions compliant with PLd Category 3, enabling safe human-robot collaboration.
UR AI Accelerator
Hardware and software toolkit designed to enable development of AI-powered applications for UR Series & e-Series cobots. Integrates three core components: the Nvidia Jetson AGX Orin, the Orbbec Gemini 335Lg 3D camera, and PolyScope X with native ROS 2 interface. Includes in-built demo programs enabling pose estimation, tracking, object detection, path planning, image classification, quality inspection, and state detection. Unveiled October 21, 2024, with a CNC machine tending application demo at ROSCon 2024 in Odense, Denmark.
PolyScope X software
Next-generation graphical operating system for Universal Robots cobots, running on the CB5.6 control box and compatible with e-Series, UR20, and UR30 arms. Introduced in 2025 as PolyScope 5's successor, PolyScope X features node-based visual programming with progressive disclosure, motion profiles, world-centric coordinate frames, and AI-ready hardware support. Purpose-built for high-mix machine tending, it enables <10-minute changeover times and targets operators and integrators seeking rapid deployment with minimal programming expertise.

Most recent patents

Universal Robots A/S·2025-12-30
Robot System And A Method For Monitoring A Robot System
US12508711
Abstract
Robot System And A Method For Monitoring A Robot System
US12508711
Abstract The invention relates to a method for monitoring a robot system comprising a robot arm and a peripheral device, the method comprising the steps of: providing a communicative peripheral connection between the peripheral device and a robot controller; establishing an operation signal history in a digital storage wherein the operation signal history is based on operation representations; executing a robot operation process on the robot controller; establishing a peripheral signal associated with the peripheral connection; recording the peripheral signal to obtain a peripheral signal representation; updating the operation signal history by providing the peripheral signal representation as an operation representation of the operation representations; and tracking operation of the robot system based on the operation signal history. The invention further relates to a robot system.
View on Google Patents
Universal Robots A/S·2025-11-25
Strain Wave Gear With Output Flange And Integrated Encoder
US12480568
Abstract
Strain Wave Gear With Output Flange And Integrated Encoder
US12480568
Abstract A strain wave gear includes an outer ring and an inner ring rotatably arranged in the outer ring. The inner ring includes an internally toothed gear and a flex spline is arranged in the inner ring and includes a flexible part that includes an external toothed gear. A wave generator is rotatable in relation to the flex spline and is configured to flex the flexible part in a radial direction to partly mesh the external toothed gear with the internally toothed gear causing rotation of the inner ring in relation to the outer ring. A part of the inner ring extends out of the outer ring and includes an outwardly protruding output flange. An encoder reader can be disposed on the outer ring and an encoder track can disposed on the inner ring. A robot joint that includes the strain wave gear is also disclosed.
View on Google Patents
Universal Robots A/S·2025-08-26
Maintaining Free-Drive Mode Of Robot Arm For Period Of Time
US12397414
Abstract
Maintaining Free-Drive Mode Of Robot Arm For Period Of Time
US12397414
Abstract The invention relates to a robot controller controlling a robot arm, the robot controller is configured to maintain the robot arm in a static posture when only gravity is acting on the robot arm and allow change in posture of the robot arm when an external force different from gravity is applied to the robot arm. The free-drive mode of operation is activatable by a user establishing a free-drive activation signal to the robot controller, which then is configured to:—monitor a value of at least one joint sensor parameter;—compare the value of the mode of joint sensor parameter to a maintain free-drive joint sensor parameter threshold value;—maintain the robot arm in said free-drive mode of operation for a predetermined maintain free-drive period of time; and—leave the free-drive mode of operation if the value of the joint sensor parameter does not exceed the maintain free-drive joint sensor parameter threshold value within the maintain free-drive period of time.
View on Google Patents
Universal Robots A/S·2025-08-12
Safe Activation Of Free-Drive Mode Of Robot Arm
US12384019
Abstract
Safe Activation Of Free-Drive Mode Of Robot Arm
US12384019
Abstract The invention relates to a robot controller controlling a robot arm, the robot controller is configured to maintain the robot arm in a static posture when only gravity is acting on the robot arm and allow change in posture of the robot arm when an external force different from gravity is applied to the robot arm. The free-drive mode of operation is activatable by a user establishing a free-drive activation signal to the robot controller, which then is configured to initiate a free-drive mode activation sequence including the steps of: in a predetermined activation sequence period of time monitor a value of at least one joint sensor parameter, and compare this value to a free-drive activation joint sensor parameter threshold value. The robot controller is configured to switch to the free-drive mode of operation if the at least one value does not exceed the free-drive activation joint sensor parameter threshold value within the predetermined activation sequence period of time.
View on Google Patents
Universal Robots A/S·2025-08-12
Detection Of Change In Contact Between Robot Arm And An Object
US12384030
Abstract
Detection Of Change In Contact Between Robot Arm And An Object
US12384030
Abstract A method of detecting change in contact between a contact part of a robot arm and an object as defined by the independent claims, by obtaining a contact force provided at the contact part of the robot arm by sensing a force provided to a part of said robot arm; and by obtaining the part acceleration 5 of the contact part of the robot arm by sensing the acceleration of at least a part of the robot arm and then indicate if a change in contact between the contact part of the robot arm and the object has occurred based on the obtained contact force and the obtained contact part.
View on Google Patents
Universal Robots A/S·2025-07-29
Method Of Obtaining Vibrational Properties Of Robot Arm
US12370675
Abstract
Method Of Obtaining Vibrational Properties Of Robot Arm
US12370675
Abstract A method and robot controller configured to obtain an inertia-vibration model of the robot arm. The inertia-vibration model defines a relationship between the inertia of the robot arm and the vibrational properties of said robot arm and have been by setting the robot arm in a plurality of different physical configurations and for each of said physical configurations of said robot arm obtaining the vibrational properties and the inertia the robot arm. The inertia-vibration model makes it possible to in a simple and efficient way to obtain the vibrational properties of different physical configurations of the robot arm whereby the robot arm can be controlled according to the vibrational properties of the robot arm. This makes it possible to reduce the vibrations of the robot arm during movement of the robot arm.
View on Google Patents
Universal Robots A/S·2025-07-08
Input Shaping Control Of A Robot Arm In Different Reference Spaces
US12350838
Abstract
Input Shaping Control Of A Robot Arm In Different Reference Spaces
US12350838
Abstract A robot controller for controlling a robot arm includes a first space shaping module configured to provide a shaped first space target motion by convolving a first space target motion with an impulse train, where the first space target motion defines a target motion in a first reference space; a second space shaping module configured to provide a shaped second space target motion by convolving a second target motion with the impulse train; where the second target motion defines the target motion in a second reference space; and a motor controller module to generate motor control signals to the joint motors based on the shaped first space target motion and the shaped second space target motion.
View on Google Patents
UNIVERSAL ROBOTS A/S·2025-06-17
Obtaining The Gear Stiffness Of A Robot Joint Gear Of A Robot Arm
US12330306
Abstract
Obtaining The Gear Stiffness Of A Robot Joint Gear Of A Robot Arm
US12330306
Abstract A method of obtaining the gear stiffness of a robot joint gear of a robot joint of a robot arm, where the robot joint is connectable to at least another robot joint. The robot joint comprises a joint motor having a motor axle configured to rotate an output axle via the robot joint gear. The method comprises the steps of: —applying a motor torque to the motor axle using the joint motor; —obtaining the angular position of the motor axle; —obtaining the angular position of the output axle; —determining the gear stiffness based on at least the angular position of the motor axle, the angular position of the output axle and a dynamic model of the robot arm.
View on Google Patents

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