Sr Robotics Engineer, PWT

About Lucid At Lucid, we are creating exceptional mobility experiences through innovation to drive the world forward. Built on Lucid’s proprietary technology and software-defined vehicle architecture, our award-winning vehicles bring our “Compromise Nothing™” approach to the global automotive market. That means refusing to choose between performance and sustainability, design and engineering, ambition and integrity. In Lucid Air and Lucid Gravity, we have designed and built vehicles that have redefined their segments, combining exceptional range, performance, design, and expansive space in a single experience.  We achieve this through deep vertical integration, with design, engineering, and production happening in-house across our global offices and manufacturing facilities. Our teams come from industries around the world, united by a shared commitment to excellence. By refusing to settle, you can help redefine what’s possible and shape the future of mobility. Position Overview The Sr Robotics Engineer, Powertrain owns robotics standards, offline programming, reliability, and safety validation for AMP-2 Powertrain — covering both Drive Unit and HV Battery robotic populations. Joining a greenfield facility, this engineer sets FANUC, ABB, and KUKA standards from first commissioning through volume ramp-up. The role is accountable for robot uptime, cycle time, and safety compliance for the entire Powertrain robot fleet. The role operates through disciplined change control, objective launch evidence, cross-functional problem solving, and structured transfer of technical ownership to the Saudi workforce.   Key Responsibilities   1.              Robotics Standards & Architecture 2.              Define and enforce robotics standards across FANUC, ABB, and KUKA populations 3.              Establish naming, positional, program, and safety-configuration standards 4.              Own robot BOM standards including controllers, teach pendants, safety modules, and EOAT interfaces Offline Programming & Cell Design 1.              Own offline programming environments (FANUC RoboGuide, ABB RobotStudio, etc) 2.              Perform reachability, collision, and cycle-time simulation for new cells and cell modifications 3.              Support cell layout, safety zoning, and human–robot collaboration design Robot Reliability & Uptime 1.              Own robot uptime KPIs across the Powertrain fleet; drive downtime reduction through structured analysis 2.              Establish robot PM strategy including grease, encoder, battery, and cable-track maintenance 3.              Lead RCA for robot-related breakdowns and cell downtime Cycle Time Optimization 4.               Own robot cycle time optimization to support takt achievement 5.               Deploy structured cycle-time reduction using motion tuning, path smoothing, and program optimization Robot Safety Validation 1.              Own robot safety validation 2.              Coordinate with EHS and Automation on safety-PLC integration, light curtains, and interlocks 3.              Ensure safety validation records are maintained and audit-ready HV Safety & Compliance 1.              Enforce HV LOTO, HVIL continuity, and mandatory HV PPE for all work on or near EV Powertrain equipment 2.              Comply with SASO, Saudi MOL, IEC 60204, and functional safety standards (ISO 13849 / IEC 62061) 3.              Support HV emergency response including thermal runaway isolation and battery-related incident procedures 4.              Achieve and maintain HV safety competency appropriate to scope of work Launch Governance & Ramp-Up 1.              Support AMP-2 Safe Launch activities, run-at-rate events, and capacity verification within scope 2.              Contribute to Launch Readiness Reviews, Layered Process Audits, and Process Confirmation routines 3.              Participate in QRQC / RCCA escalations during launch and ramp-up phases Safety & Reliability Governance 1.              Define robot programming, naming, frame, payload, backup, mastering, spare, preventive-maintenance and controlled-change standards. 2.              Own offline simulation, reachability, collision, safety zones, cycle optimization and digital validation for new cells and modificati