Electrical Engineer, Robotics

OpenAI OpenAI · AI Frontier · San Francisco, CA · Research

This role is for an Electrical Engineer focused on developing the next generation of robotic systems at OpenAI, spanning the full lifecycle of hardware development from concept to deployment. The engineer will own electrical architecture, design and implement electronics, build and validate hardware in integrated systems, and partner with cross-functional teams to deliver system-level solutions.

What you'd actually do

  1. Own significant portions of the electrical architecture for compact, highly integrated robotic and electromechanical systems, including sensing, communication, power distribution, and actuator interfaces.
  2. Design and implement compact electronics spanning circuit design, component selection, PCB layout, bring-up, validation, and deployment.
  3. Build and validate hardware in integrated robotic systems, driving issues from first observation through root cause and design resolution.
  4. Partner closely with mechanical, firmware, software, controls, manufacturing, and research teams to deliver coherent system-level solutions.
  5. Make thoughtful engineering tradeoffs across performance, size, power, reliability, manufacturability, and iteration speed.

Skills

Required

  • Electrical Engineering
  • Robotics Hardware Development
  • Circuit Design
  • PCB Layout
  • Component Selection
  • Bring-up
  • Validation
  • System Integration
  • Cross-functional Collaboration
  • Mechanical Engineering
  • Firmware
  • Software
  • Controls
  • Manufacturing

Nice to have

  • GMSL
  • MIPI/CSI
  • FPD-Link
  • High-speed camera interfaces
  • Multi-board robotic systems
  • Distributed sensing
  • Actuation
  • Real-time communication
  • EVT/DVT builds
  • Low-volume production
  • Contract manufacturer support
  • Bring-up firmware
  • Test firmware
  • Diagnostic firmware
  • C
  • C++
  • Rust
  • Python

What the JD emphasized

  • 6+ years of experience
  • personally owned hardware from concept through PCB layout, bring-up, validation, and deployment
  • tightly integrated electromechanical products
  • severe mechanical constraints
  • loosely defined problems and turning them into working systems with limited direction