Digitalisation & Technology, 8 July 2026

When the metal colleague gives a shove

Who is liable when humanoid robots and autonomous systems make mistakes?

Wer haftet, wenn humanoide Roboter und autonome Systeme Fehler machen?

A perfectly ordinary Monday morning in a state-of-the-art logistics centre: Robert Alpha reaches for a box, but stumbles; he flails his arms to avoid falling, in the process shoving a colleague, onto whose foot the heavy box then falls. Robert managed to avoid falling, but his colleague’s foot is broken. Despite the tragedy for the injured colleague, viewed objectively, this is simply an accident at work, isn’t it? No, because Robert isn’t a human – he’s a humanoid robot!

What sounds like a scene from a Steven Spielberg science-fiction film is increasingly becoming a reality. Prototypes of humanoid robots, which are on the verge of market readiness, are already at work in the first logistics centres. At Amazon, for example, ‘Digit’ from Agility Robotics is currently leading the growing field of commercially available humanoids. Digit’s strength lies in its versatility: it can transport boxes, sort them and place them on shelves, all within a working environment that is actually designed for humans.

Integration into the human workplace is one of the reasons why robots are being built that resemble humans in their anatomy. Had the robot from the opening scene had four legs, or perhaps even six, the accident would probably not have happened. Perhaps at some point in the future there will be robots that do not need to integrate into human working environments and therefore no longer resemble human anatomy. However, this would require fundamental changes to logistics centres, so it remains, in fact, a vision for the future.

Whilst humanoid robots were initially used primarily for research purposes, in recent years they have become increasingly market-ready in various fields of application such as care, service and assistance, the military, but above all in industry (see overview). Their development is being driven forward on a massive scale by companies in the fields of automation, artificial intelligence and electromobility.

Modern humanoid robots are equipped with powerful neural networks, three-dimensional environmental perception and fine-motor grasping mechanisms. They can therefore be deployed in a wide range of applications and work side by side with human colleagues. In collaborative settings, for example, they take on strenuous and monotonous tasks that often lead to physical problems in humans.

Suppliers of humanoid industrial robots:
  • 4NE-1 (Neura Robotics, Germany)
  • Agile One (Agile Robots, Germany)
  • Apollo (Apptronik, USA)
  • Atlas (Boston Dynamics, USA)
  • Digit (Agility Robotics, USA)
  • Figure 01 & 02 (Figure AI, USA)
  • L7 (RobotEra, China)
  • Neo Home Robot (1X, Norway–USA)
  • Optimus (Tesla, USA)
  • Phoenix (Sanctuary AI, Canada)
  • Unitree G1 / H1 (Unitree Robotics, China)
  • Walker S2 (UBTECH Robotics, China)

Autonomous mobility as a further example of automation

Alongside robotics, autonomous mobility has also picked up pace again. Thanks to advances in areas such as sensor technology and, above all, artificial intelligence, the automation of mobility – which had previously stalled somewhat – has also been able to make progress. Vehicles with a high degree of automation are already in use in selected application areas, albeit mostly within clearly defined operational zones.

Strictly regulated routes on company premises can already be navigated today by autonomous shuttles without any human drivers at all. Here, too, logistics centres are leading the way. As they are under intense pressure to improve efficiency, they are managing with fewer and fewer human workers and are therefore an ideal testing ground for autonomous mobility.

In public spaces, however, the focus remains for the time being on intelligent assistance systems that relieve the burden on people but do not relieve them of responsibility. For here, too, the question naturally arises: who is liable for any accidents resulting in damage to property or personal injury?

The changing landscape of liability

Until now, liability issues have been regulated with relative clarity: if an employee operates a machine incorrectly or a driver causes an accident, responsibility can usually be clearly attributed to a single person.

With autonomous systems, however, the question of liability becomes significantly more complex. They operate on the basis of information from various sensor systems, which is processed by software. This creates a chain of action involving numerous parties: hardware manufacturers, software developers, operators, system integrators and data providers.

If an incident resulting in damage occurs, several questions immediately arise:

Was the sensor technology faulty? Did a software error influence the system’s decision? Was a faulty update installed? Or was the cause, after all, improper use?

Responsibility can thus shift from an individual user to complex technological systems involving various parties. For insurers, this ultimately means that traditional liability models are increasingly reaching their limits in this context and must be supplemented with new models.

The paradox here is that the drivers of technological innovation cite the reduction in accidents as a key advantage of autonomous systems. After all, machines do not make mistakes because they are overtired, distracted or lacking in concentration. Yet, as with almost every technological innovation, there is a catch: whilst human-caused accidents are usually isolated incidents, technical faults in autonomous systems can lead to cascading effects. A faulty software update or even a cyberattack on networked systems can affect numerous autonomous units simultaneously.

This creates a new liability landscape for insurers, as risks can also correlate with one another. Claims no longer occur in isolation, but can affect many systems. Furthermore, a faulty algorithm, for example, can also affect other system components and lead to further errors there. Just as with a complex mathematical calculation where an error occurs in the very first sub-task, all subsequent tasks will then also be incorrect.

Conclusion: How insurers can respond

The proliferation of autonomous systems is undoubtedly another major technological upheaval, much like industrialisation many years ago and, more recently, digitalisation. The insurance industry has always kept pace with these upheavals and adapted accordingly. This will certainly be the case again now.

One important approach lies in the development of new cover concepts specifically designed for autonomous robotic systems and vehicles. This is no longer just about traditional liability issues, but also involves the integration of product and cyber risks.

However, the innovation of autonomous systems also opens up new options and opportunities for insurers in risk assessment. Robots and vehicles generate a wealth of telemetry data for their autonomous functions, continuously providing information on their condition, usage and surroundings. This data can also be used to assess risks more accurately, analyse and investigate claims, and derive preventive measures.

Much like the digital immune system in IT [LINK], the insurance industry is also evolving here from a mere claims settler to an active risk partner. It is no longer simply a matter of insurance at the end of the value chain. Instead, collaboration with all stakeholders throughout the entire value chain is becoming increasingly important.

Text: Falk Hedemann

Tech Trend Radar

How are robots held liable? This question is also addressed in the latest Tech Trend Radar 2026 published by ERGO and Munich Re. Andreas Schumacher, Project Manager for Artificial Intelligence at Munich Re, writes:

“Humanoids will relieve humans from the riskiest and repetitive work, but they also bring software-defined accumulation risk the moment they operate in close proximity to people.”

https://www.ergo.com/de/newsroom-ergo/medieninformationen/2026/20260415-ergo-tech-trend-radar


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