Lead Safety Engineer, Robotics

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

Lead Safety Engineer for OpenAI's Robotics team, focusing on defining and leading the product safety strategy for robotic systems. This role involves integrating safety across the entire development lifecycle, from early development through deployment, by working with leadership, engineering, research, legal, and policy teams. Responsibilities include shaping safety thinking, influencing product architecture, ensuring compliance with current and emerging regulatory expectations, and establishing long-term safety strategy. The role requires expertise in product safety, regulatory strategy, systems engineering, and risk management, with a focus on translating safety requirements into product architecture and engineering requirements, developing hazard analyses, risk assessments, and safety cases.

What you'd actually do

  1. Define and lead the product safety strategy for robotic systems across the development lifecycle.
  2. Monitor and influence emerging regulatory frameworks, industry standards, and policy developments relevant to robotics and autonomous systems.
  3. Partner with engineering teams to translate safety requirements into product architecture, design decisions, and engineering requirements.
  4. Develop and maintain system-level hazard analyses, risk assessments, and safety cases for robotic products.
  5. Establish safety requirements, verification strategies, and evidence-generation plans to support product development and future certification activities.

Skills

Required

  • Product safety
  • Functional safety
  • Systems safety
  • Robotics safety
  • Regulatory strategy
  • Systems engineering
  • Risk management
  • Hazard analysis
  • Risk assessment
  • Safety case development
  • ISO 10218
  • ISO 13849
  • IEC 61508
  • ISO 12100
  • ANSI/RIA standards
  • Complex electromechanical systems
  • Regulators
  • Standards organizations
  • Certification bodies
  • Industry working groups

Nice to have

  • First-principles thinking
  • Navigating ambiguity
  • Balancing technical, regulatory, operational, and business considerations
  • Working across disciplines
  • Influencing engineering decisions without direct authority
  • Robotics
  • Autonomous systems
  • Industrial equipment
  • Consumer products
  • Medical devices
  • Automotive systems
  • Aerospace systems
  • Safety-critical technologies

What the JD emphasized

  • ensure safety is integrated into our products from the earliest stages of development through deployment
  • define and lead the product safety strategy
  • ensure our systems are designed to meet both current and emerging regulatory expectations
  • establish the long-term safety strategy for our products and organization
  • translate safety requirements into product architecture, design decisions, and engineering requirements
  • Establish safety requirements, verification strategies, and evidence-generation plans
  • assess regulatory risks and inform long-term product strategy
  • identify hazards and develop mitigations throughout the development process
  • drive mitigation strategies throughout product development
  • Represent the company in discussions with standards bodies, industry groups, regulators, and external safety experts
  • Help build and scale the safety engineering function

Other signals

  • AGI-level intelligence in dynamic, real-world settings
  • integrate cutting-edge hardware and software
  • seamlessly blend high-level AI capabilities with the constraints of physical systems