IFR World Robotics 2026: 5 Million Robots and What It Means for Engineers

The IFR World Robotics 2026 report, released on 24 September 2026, counts a record 5 million industrial robots working in factories worldwide, 9% more than a year earlier, after more than 600,000 new installations in 2025 (up 11%). China installed 354,000 of them, the United States overtook Japan as the second-largest market, and the IFR forecasts 655,000 installations in 2026 and 806,000 by 2029.

Checked 1 October 2026. Every figure here comes from the International Federation of Robotics' own press releases for World Robotics 2026, listed under Sources. The full report is a paid publication; the press releases carry the headline numbers.

What did the IFR World Robotics 2026 report say?

The headline is the size of the installed base. IFR president Jane Heffner said the new mark of five million robots in service is more than double the number seven years ago. Growth was led by Asia, followed by the Americas, with Europe moving more slowly.

• Operational stock: 5 million industrial robots at the end of 2025, up 9%.
• Annual installations: more than 600,000 units in 2025, up 11%.
• By region: Asia installed 457,315 units (up 14%), the Americas 57,044 (up 14%) and the European Union 60,500 (down 11%).
• Forecast: installations rising 9% to 655,000 units in 2026 and reaching 806,000 units in 2029.

The IFR also points to what is driving adoption: advances in AI, machine vision and sensing are widening what robots can do, while better programming interfaces and system integration are lowering the cost of deploying them. Both of those trends change the skills an engineer needs, which is the point of the second half of this article.

Why does China dominate robot installations?

China installed 354,000 industrial robots in 2025, almost three of every five installed worldwide and a new peak. The IFR links this to a national robotics strategy started ten years ago and updated under the 15th Five-Year Plan (2026 to 2030), which focuses AI research on physical applications.

• Customer industries: electrical and electronics installed 96,400 units (up 16%, a 27% share). Automotive reached a record 78,900 (up 38%). Metal and machinery installed 78,700 (up 44%).
• Domestic brands: Chinese suppliers grew 15% and took 55% of installations. Foreign brands grew faster, up 27%, but since 2024 more than half of China's new robots have carried Chinese brands.
• Volatility in new sectors: food and beverage installations fell 37% in 2025 after 86% growth in 2024, and textiles and apparel collapsed by 92%. General industry demand is real but lumpy.

The IFR expects the Chinese market to keep growing by 5% to 10% a year on average until 2029, driven partly by labour shortages from demographic change.

How did the United States overtake Japan?

The US installed 38,400 industrial robots in 2025, up 12%, against 36,200 in Japan. The IFR's global summary rounds the US figure to 38,500 and gives Japan's as 36,219, down 19%. Heffner said 2025 was the third-strongest US year on record, behind 2018 and 2022.

• Automotive stayed the largest US customer with 13,500 installations, 1% fewer than in 2024.
• Metal and machinery came second with 3,000, down 15%.
• Food and beverage rose 30% to 2,900 units, and growth also came from warehousing, logistics and medical.

The IFR notes that the US has many domestic system integrators and some new American robot makers, but that most robots installed there are still imported from Japan and Europe. It expects growth to continue in 2026 and beyond, with reshoring and labour scarcity outweighing short-term trade uncertainty.

What happened in Europe?

The EU passed 700,000 robots in operation, 712,000 in all, up from 390,000 in 2015. But annual installations fell 11% to 60,500 in 2025, and automotive, still the EU's largest customer, dropped 25% to 14,900 units.

The IFR expects a weak EU economy until 2027 and notes that Chinese robot makers have begun opening European distribution hubs.

Japan, Korea and India

Japan fell to third place with 36,219 units (down 19%). The Republic of Korea installed 30,000 (down 1%) and stayed fourth. India installed about 10,500 robots, up 15%, taking sixth place, with installations growing at an average of 27% a year from 2020 to 2025.

What does it mean for robot programming and maintenance skills?

Two numbers matter for an engineer. Installations, 600,000 a year and rising, are the commissioning market: each new cell needs design, programming, PLC integration and safety validation. The installed base, 5 million and growing about 9% a year, is the maintenance market: each robot needs backups, fault finding, recalibration after a crash or a motor change, and program edits whenever the product changes, for many years.

Here is how the figures translate into skills:

1. Pendant and offline programming still come first. Frames, tool data, payloads and motion instructions are the same ideas on every brand. Learn one brand properly, then a second, and you will see how much transfers. The brand mix differs by region: Japanese and European brands dominate US imports, while Chinese brands now take most installations in China.
2. Integration is where cells succeed or fail. Most robots sit inside a cell run by a PLC. The handshake (part present, robot ready, cycle start, cycle complete, fault) over PROFINET or EtherNet/IP is a large share of commissioning work and fault finding.
3. Safety knowledge is required, not optional. ISO 10218-1 and -2 were revised in 2025, their first major update since 2011. The new edition makes functional safety requirements explicit, brings the collaborative robot content of ISO/TS 15066 into the standard and adds cybersecurity requirements where they affect robot safety.
4. Vision is becoming standard. The IFR names AI, machine vision and sensing as the drivers of new applications. A technician who can calibrate a camera and fix a vision-guided pick is worth more than one who cannot.
5. Watch the growth sectors. In the US, food, warehousing, logistics and medical drove growth; in China, electronics and metal and machinery. Palletising, picking, packaging and machine tending are the applications those sectors buy.

How can you learn these skills for free?

You do not need a robot to start. Every major brand has a simulator, and the free courses on EDWartens run in them.

• FANUC Robot Programming with the teach pendant and ROBOGUIDE.
• ABB Robot Programming with RobotStudio and RAPID, the best free simulator to start with.
• Universal Robots Cobot Programming with PolyScope for collaborative applications.
• RoboDK Offline Programming and Simulation to program several brands from one tool.

The industrial robotics path puts them in order, and all free robotics courses are listed on one page. For the software side, see free robot programming simulators; for the bigger picture, the industrial robotics training guide and cobot training. If you are wondering where humanoids fit, read humanoid robots in factories in 2026.

Every course is free in full. The only paid item is the optional EDWartens Certificate of Completion, from US$2.99 for a beginner course, issued after you pass the final assessment and checkable at edwartens.com/verification. It is not a FANUC, ABB or Universal Robots certification.

How to read these numbers carefully

• Installations are not jobs. The IFR counts robots, not vacancies. More robots means more engineering and maintenance work, but the report does not say how many jobs.
• Forecasts are forecasts. The 655,000 and 806,000 figures are the IFR's projections, and 2025 showed how fast single sectors can swing.
• Small differences between releases are rounding. The US release gives 38,400 and the global summary 38,500; the China release gives 354,000 and the US release 354,200.

Take the free course

Robotics · Beginner · Free

FANUC Robot Programming with the Teach Pendant and ROBOGUIDE

Robotics · Beginner · Free

ABB Robot Programming with RobotStudio and RAPID

Robotics · Beginner · Free

Universal Robots Cobot Programming with PolyScope

Robotics · Beginner · Free

RoboDK Offline Programming and Simulation