We’ve all seen the flashy videos of bipedal robots doing backflips. They’re impressive engineering feats, but are they practical for mass-market scaling?
At our core, we are chasing Optimal Universal Construction. We believe that to reach true mass production, we have to stop mimicking human anatomy and start optimizing for physics and the supply chain.
Our blueprint for the future of universal robotics leans into four “Controversial” pillars:
1. Ditch the Legs 🛞
Legs are complex, expensive, and high-maintenance. For 90% of industrial and commercial environments, wheels offer superior speed, stability, and energy efficiency at a fraction of the cost.
2. Linear > Rotary 🦾
Traditional humanoid arms put immense torque on rotational joints, requiring expensive, high-precision gearboxes. By using linear actuators, we achieve high payload capacity and extreme simplicity using off-the-shelf parts.
3. Cooperation over “Two-Armed” Complexity 🤝
Why build one expensive robot with two arms when you can have two affordable robots that cooperate? Multi-robot coordination scales faster and offers more redundancy than a single humanoid unit.
4. The “Off-the-Shelf” Mandate 📦
To scale fast, you can’t rely on custom-machined parts. We build for:
Lowest possible unit cost
Extreme simplicity
Rapid repairability
The Result: A robot that isn’t built to look like us, but is built to work for us.
Is this the path to the first billion robots, or is the “humanoid” form factor essential for navigating a world built for people?
We would love to hear from my fellow robotics engineers and founders—what do you think? 👇