As Head of System, you own how our humanoid works as a machine. You define the robot's system architecture: its kinematic and dynamic structure, where sensors sit and why, how compute and control are distributed across the body, and how mechanics, electronics, and software resolve into one coherent design. When a decision spans disciplines and nobody owns it, you do.
You have built humanoids before, more than once, and you know which problems only appear on the third robot. You are technically deep enough that our architects and roboticists want to argue with you, and experienced enough in real engineering organizations to run a team, hold a roadmap, and say no to good ideas that arrive at the wrong time.
You work directly with the founders, with the Chief AI Officer on how learned policies meet the physical platform, and with the Head of Hardware, who takes your architecture and makes it manufacturable. The Software Lead, the Systems Engineering Lead, and the Robot Architect report to you.
Key Responsibilities
Robot system architecture. Own the physical and functional architecture of the robot: degrees of freedom, kinematic structure, mass and inertia strategy, sensor selection and placement, actuator specification, compute topology, and the reasoning behind each.
The mechanics-to-control loop. Ensure that what is built is what the controllers assume: system identification, URDF and model fidelity, dynamic behavior, and the discipline of closing the loop between design intent and measured reality.
Interface ownership. Own requirements, interface control, and the mass, power, thermal, and bandwidth budgets that keep the disciplines honest. Hold the contract at the seam with hardware.
AI to platform. Work with the CAIO and AI team so that policies trained in simulation transfer to hardware: sim-to-real fidelity, latency and control-rate budgets, observation and action interfaces, and what the platform must provide for learning to work.
Software and embedded leadership. Lead the software organization spanning embedded, motion control, perception integration, and robot infrastructure. Set standards, review practice, and establish technical decision frameworks.
Safety architecture. Champion functional safety at the architectural level for machines that cannot rely on stopping to be safe. Our founding team helped write the emerging humanoid safety standards in ISO TC299, and you will shape how that thinking enters our platform.
Validation of behavior. Define what "working" means for the robot as a system and own the acceptance criteria that integration executes against.
Engineering leadership. Build and grow a team of roboticists and software engineers. Mentor strong individual contributors and give architects room to be architects.
