Humanoid robots are often presented as products. You describe them as infrastructure. Why?
If you look at the size of the humanoid opportunity, it’s enormous far beyond a handful of predefined tasks. Many companies focus on solving one narrow use case, which limits both scale and impact. Our approach at Prometheus Robotics is different: we are building a humanoid platform that others can build on.
No single company can realistically cover the diversity of industrial workflows across manufacturing, logistics, testing, or R&D. But a platform can. By providing a capable, modular humanoid base, we allow startups, system integrators, automation suppliers, research labs, and even advanced DIY builders to adapt the robot to their own use cases or to their customers’ needs.
More broadly, AI is now everywhere. The missing piece is physical embodiment. Humanoids give AI a body that can operate in human-designed environments. In that sense, humanoids are not a niche product category they are the bridge between digital intelligence and the physical economy.
What is the main bottleneck preventing humanoids from scaling into real industrial systems?
The bottleneck is not performance. Humanoids already work in real factories. The real constraint is speed of adaptation.
Today, very few teams can actually buy a humanoid robot to experiment with, integrate, and deploy. Many suppliers build robots for a single client and a single scenario. That slows down innovation across the entire ecosystem.
Europe has world-class AI talent startups, universities, research labs but they lack access to humanoid hardware. We saw this firsthand: once we moved closer to industrial readiness, we started receiving inbound requests from European and US companies looking for humanoids as development platforms.
At the same time, many companies are hesitant to source humanoids from China due to security, IP, and strategic concerns. This makes the European shortage even more acute.
Prometheus Robotics exists to solve exactly that problem: we build humanoids as accessible platforms, so others can focus on the “last mile” turning them into task-specific industrial solutions.
In which use cases does the humanoid form already make clear economic sense?
The most immediate advantage is infrastructure compatibility. Factories are designed for humans stairs, doors, racks, tools, narrow aisles. A humanoid can operate in these environments without costly redesign.
A good near-term example is parts picking. Humans navigate tight aisles, open boxes, pick objects of different sizes and weights, and move quickly. Wheeled robots struggle with balance and space constraints. Humanoids can stay compact, dynamically balance, and manipulate objects like a human.
Another strong case is handling totes and boxes across mixed terrain: loading trucks, climbing steps, entering vehicles, dealing with ramps. Legs are not cosmetic they remove the need for additional infrastructure.
Testing and handling workflows are also ideal: picking devices, placing them into test rigs, pressing buttons, reacting to results, sorting outputs. These tasks combine mobility and manipulation exactly what humanoids are built for.
Assembly is more complex, especially for small components, but even there humanoids match the real layout of factories, where tasks are distributed across space. Historically, companies built specialized robots because the technology stack wasn’t ready. Today, AI, simulation, actuators, batteries, and training pipelines have changed the economics.
Humanoids also preserve flexibility. Specialized automation locks factories into one product. When the product changes, everything must be rebuilt. Humanoids can keep using the same tools and machines humans already use.
If you had to name one external leverage to accelerate your scale tenfold, what would it be?
Capital. This is a scale race.
Funding allows us to hire faster, parallelize engineering, increase production, and deliver robots sooner. The faster we move, the faster the ecosystem around us can build on top of the platform.
This is also strategic for Europe. Humanoids will be central to industrial competitiveness. China is investing massively in robotics. Enabling European companies with accessible humanoid hardware is not optional it’s essential if Europe wants to remain competitive.
Long term, where does the real value concentrate: hardware, software, or use cases?
Ultimately, value concentrates in repeatable industrial use cases and the software ecosystems that make deployment fast and reliable. But none of that scales without accessible, production-ready hardware.
Europe does not lack AI talent. What it lacks is humanoid platforms that teams can buy, iterate on, and deploy. Prometheus Robotics is building that missing foundation.
We work closely with startups, integrators, industrial teams, universities, and R&D labs to continuously strengthen the platform. Our goal is simple: make humanoid hardware available now, so the entire ecosystem can move faster.
Robot-Magazine takeaway
Prometheus Robotics is not betting on humanoids as a futuristic showcase, but as industrial infrastructure a foundational layer enabling thousands of downstream applications. If the company succeeds, humanoids may follow the same path as PCs or industrial PLCs: standardized platforms upon which entire industries are built.
The race is no longer about who builds the flashiest robot but who enables the most builders.
FAQ – Prometheus Robotics and the Rise of Industrial Humanoids
2. What is the main barrier to large-scale adoption of humanoid robots in industry?
The main barrier is not technical performance, but the speed of adaptation. Very few companies today can acquire a humanoid to test, integrate, or develop industrial solutions. The market is still dominated by robots designed for a single client, which slows innovation. Prometheus Robotics aims to reverse this trend by making these platforms accessible
3. Why is Europe particularly affected by this lack of access to humanoids?
Europe has a strong ecosystem of AI talent, research labs, and startups, but suffers from limited access to ready-to-use humanoid platforms. Many companies are also hesitant to purchase robots from China due to concerns over security, intellectual property, and technological sovereignty. This combination creates a critical gap that Prometheus aims to fill.
4. In which use cases does the humanoid form already provide clear economic value?
Humanoids prove cost-effective in environments designed for humans: narrow aisles, stairs, doors, racks. Tasks such as picking, box handling, vehicle loading, navigating mixed terrain, or testing operations already leverage their mobility and dexterity. Their form allows them to work without modifying existing infrastructure.
5. Can humanoids replace specialized automation?
Not entirely, but they offer a key advantage: flexibility. Specialized systems are highly efficient but rigid. When the product changes, the tool must be rebuilt. A humanoid can use existing human tools and adapt to production variations. It enables automation without locking the factory into rigid configurations.
6. What external factor would most accelerate the expansion of Prometheus Robotics?
The main factor is access to more capital. Humanoid robotics is a race to scale: more engineers, more manufacturing, more robots delivered. The more the platform spreads, the faster the application ecosystem can grow. It is also a strategic issue for Europe, which must invest if it wants to remain competitive against China.
7. Where will long-term value really lie: hardware, software, or use cases?
Value will concentrate in scalable industrial use cases and in the software that enables rapid deployment of humanoids. However, none of this can emerge without a reliable and accessible hardware foundation. Prometheus Robotics aims to provide that foundation, allowing R&D teams, startups, and industrial players to innovate faster.
