
It sounds like something out of a science fiction movie, but it's a very real development: BMW has decided to incorporate humanoid robots into its car production in Europe , starting with a pilot project at its Leipzig plant in Germany. This step represents a significant shift in how work is organized in the factory, combining decades of industrial experience with what's known as Physical AI.
The company wants to test the extent to which these robots can be integrated into mass production, particularly in the assembly of high-voltage batteries and other components , without disrupting the existing production lines. It's not just about installing new machines, but about fitting artificial intelligence-based systems into already highly automated and demanding processes.
Physical AI: BMW's technological bet in Europe
The heart of this project is Physical AI , a combination of artificial intelligence and physical robotics that aims to bring the capabilities of digital agents to the real factory environment. BMW has long been working with AI models in virtual environments, digital twins, and quality control systems, but now it wants that intelligence to also have a physical presence.
According to the company, digitalization is a key lever for maintaining the competitiveness of its European plants against other global production hubs. Therefore, the group has decided to test this technology at a benchmark facility like Leipzig, where a high level of automation and experience in integrating new systems are already in place.
This project in Europe isn't starting from scratch. BMW has already deployed humanoid robots at its Spartanburg plant in the United States , with results the company considers satisfactory. The information gathered there now serves as a basis for refining the European deployment and reducing the time between the laboratory phase and production line work.
The corporate strategy involves making AI and robotics a pillar of BMW iFACTORY , the production model that the group is promoting to make its plants more flexible, modular and prepared for rapid changes in demand or products.
AEON: the humanoid robot chosen for the Leipzig plant
The star of the European pilot program has a name: AEON, the humanoid robot developed in collaboration with Hexagon Robotics , Hexagon's Zurich-based robotics unit specializing in Physical AI. This model was officially unveiled in June 2025 and has since undergone various testing phases.
During the first stage, AEON underwent theoretical evaluation and laboratory testing to validate its capabilities in typical automotive industry tasks. After successfully completing this phase, a first trial deployment took place in December 2025 at the Leipzig plant, in a real industrial environment.
BMW plans to conduct another round of trials starting in April 2026 to fine-tune the system's integration into the factory. If everything goes according to schedule, the pilot phase itself will begin in the summer, with the robot working regular shifts on the production line.
AEON's design follows humanoid proportions, allowing it to move through spaces originally intended for people and operate in existing workstations. Its body accommodates hand tools, grippers, and scanning systems , enabling it to be reconfigured as tasks change.
A key feature is that AEON moves on wheels , giving it smooth mobility in aisles and stations while maintaining stability and precise positioning. This combination makes it suitable for a "multifunctional application," as the company emphasizes, to cover different types of operations within the same plant.
Intended uses: high-voltage batteries and components
In this first European phase, BMW does not intend for humanoid robots to handle the entire production process, but rather very specific tasks where ergonomics and repetitiveness pose a problem for the workforce . The initial focus will be on the assembly of high-voltage batteries and the manufacturing of components.
These are operations that require a high level of precision and constant repetition , and which sometimes involve handling heavy parts or working in postures that, in the long run, can cause physical discomfort. The idea is for AEON to take on these more demanding and monotonous tasks, reducing the physical workload for employees.
BMW insists that the intention is not to replace human workers , but to complement their work . Humanoid robots are envisioned as an extension of existing automation, especially useful in tasks that are critically demanding from a safety or occupational health perspective.
In parallel, the presence of these systems necessitates a rethinking of training and skills within the plant . As robots like AEON become more prevalent, the importance of roles focused on supervision, programming, maintenance, and data analysis will increase compared to purely physical tasks.
The company also sees potential to expand the use of these robots to new areas if the Leipzig pilot project lives up to expectations. For now, the goal is to ensure a smooth integration between the humanoid robots, traditional automated production lines, and the human teams already working in the factory.
A unified data model to make AI work in the factory
The arrival of robots like AEON would be pointless without a solid digital foundation. That's why BMW emphasizes that it has already transformed its old information silos into a common data platform , where information is standardized and available to all areas of production.
This unified model allows AI-powered digital agents to take on increasingly complex tasks , from quality control and intralogistics to production planning. AI doesn't just offer recommendations; it learns from daily operations and can adapt to new circumstances.
In this context, Physical AI acts as a bridge between the artificial intelligence systems already existing in the “virtual factory” —with digital twins and simulations—and the physical reality of the plant. Humanoid robots become the visible element of that intelligence in the workshop.
Executives like Michael Nikolaides, head of the group's production network and supply chain, have made it clear that BMW wants to integrate emerging technologies at early stages , testing them in pilot projects before potential large-scale rollout. This includes both Physical AI and new robot models.
The company presents this deep digitalization as one of the pillars of BMW iFACTORY, its vision of a more flexible and future-proof production , capable of adapting to shorter product cycles and a greater variety of electrified versions.
Lessons from the United States: the case of Spartanburg
The European pilot project in Leipzig draws directly on BMW's previous experience in the United States. In 2025, the Spartanburg plant was the site of the group's first major deployment of humanoid robots , in collaboration with the technology company Figure AI.
The Figure 02 model was used there , assisting in the production of the BMW X3 for about ten months . The robot worked ten-hour shifts, Monday through Friday, integrating into the usual routine of the body shop, an area with a high degree of prior automation.
Its primary task was to remove and position sheet metal parts for the welding process , a physically demanding task that also requires high precision and high-speed repetition. Throughout the pilot program, the robot moved more than 90.000 components.
The company estimates that the humanoid robot took approximately 1,2 million steps in about 1.250 hours of operation . Beyond the numbers, the key takeaway for BMW is that the transition from lab-trained movement sequences to factory settings was faster than expected, achieving stable operation on regular shifts in a short time.
This experience in Spartanburg also served to demonstrate the importance of involving areas such as production IT, workplace safety, logistics, and process management from the outset . Integration with the BMW Smart Robotics ecosystem was achieved through standardized interfaces, facilitating coexistence with existing systems, such as the autonomous transport robots that supply the production lines.
Impact on European plants and next steps
Although the Leipzig pilot project is the first of its kind in Europe, BMW is already evaluating new use cases for future robot models , such as the Figure 03 developed by Figure AI. The idea is to have a broader "toolbox" of humanoid solutions for different plants and processes. In this context, local initiatives are emerging as a humanoid technology hub in Europe.
In the European context, the implementation of these systems comes at a time when the automotive industry is facing electrification, new regulations, and intense international competition . Advanced automation and AI are seen as a way to sustain industrial activity and employment in the region.
In the factories where these robots have already been tested, BMW reports that the workforce's reaction has been one of curiosity rather than rejection . Early communication about the projects and transparency regarding the objectives have contributed to the presence of humanoids being perceived as a support tool and not as an immediate threat.
As the pilot phase progresses, the group will collect data on the productivity, quality, ergonomics, and social acceptance of these robots. Based on this information, they will decide whether to extend this type of solution to other European facilities or keep its use limited to very specific cases.
With all this, the introduction of humanoid robots into BMW's European production marks a turning point in how work is understood in car plants : the combination of Physical AI, unified data platforms and industrial expertise opens the door to factories where humans and machines increasingly share space and responsibilities, with the stated goal of making processes more efficient without losing sight of working conditions.

