robotics
Swiss Robotics Sector Faces Transition as AI Start-ups Emerge
Switzerland’s robotics sector is entering a period of transition as ABB prepares to sell its robotics division while start-ups linked to ETH Zurich and EPFL develop new AI-enabled machines.

ABB’s planned sale of its robotics division to Japan’s SoftBank has put Switzerland’s industrial identity under fresh scrutiny. ABB has long served as one of the country’s most visible links to advanced manufacturing, with robotics connecting Swiss engineering to factories around the world. The transaction raises concerns that strategic control could move away from Switzerland as artificial intelligence reshapes the sector.
The timing matters. AI is changing how robots interpret environments, learn tasks and work alongside people. That shift creates pressure on established manufacturers, which must combine mechanical precision with software, data and adaptable machine behaviour.
Switzerland still has strong assets. ETH Zurich and EPFL continue to produce research, engineers and spin-outs with ambitions beyond laboratory demonstrations. Their companies are developing machines that pair new forms of hardware with AI systems, opening potential applications in production and other workplaces.
The result is a sector in transition. ABB’s sale points to changing ownership at the industrial end, while university-linked start-ups are testing where the next generation of Swiss robotics companies might emerge.
Universities Build the Next Robotics Generation
ETH Zurich and EPFL are feeding a new start-up pipeline into Swiss robotics. The two federal technical institutions have become important sources of research and entrepreneurial talent as the industry moves toward machines that can respond to less structured environments.
The newer companies described by SWI swissinfo.ch are developing robots through a combination of novel hardware and AI. That combination is significant because software alone cannot solve every challenge on a factory floor. A robot also needs reliable movement, sensitive gripping, robust components and the ability to perform safely around people.
One example highlighted in the reporting is Mimic, whose robotic hands are shown carrying out a production task involving wire harnessing. The demonstration illustrates the practical direction of the field: machines designed to handle delicate, complex work rather than simply repeat a fixed movement.
For Switzerland, the university connection offers a route from research to commercial products. It also places pressure on start-ups to secure financing, industrial customers and manufacturing capacity. Strong laboratories can generate prototypes, but lasting companies require access to supply chains and markets.
AI Changes the Workplace Around Robots
Artificial intelligence is expanding what robots can do, while sharpening questions about their effect on people’s lives. Traditional industrial robots typically performed tightly defined tasks in controlled settings. AI-enabled machines are being developed to interpret more information and adjust their actions as conditions change.
That progress could make robotics useful in a wider range of Swiss workplaces, including production environments where components vary or tasks require dexterity. It could also alter the skills workers need, increasing demand for people who can supervise, maintain and improve complex robotic systems.
The social consequences remain part of the debate. More capable machines may change how work is organised and how responsibility is assigned when an AI-supported robot makes a mistake. Companies and public institutions will have to address safety, accountability and the effect of automation on employment as the technology moves from demonstrations into regular use.
The Swiss discussion is therefore broader than industrial competitiveness. It includes the country’s approach to research, regulation and workplace adaptation. AI is becoming a core part of robotics, and its adoption will affect factories as well as the people working around them.