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XDOF in San Mateo, CA seeks a Robotics Infrastructure Engineer to build the product and infrastructure that deploys and evaluates learned robot policies on real hardware. You’ll work on VLAs, imitation learning, DAgger, and more, shipping partner-facing capabilities.
Ideal candidates have 3+ years in software with robotics/ML deployment, strong Python, Linux, and Docker, and experience deploying ML models to real systems. ROS/ROS2 experience is a plus.
At XDOF, we're at an inflection point. Frontier labs are racing to build general-purpose robots, and high-quality training data is the bottleneck. We're building the foundation behind the foundation models – the data collection systems, operational capability, exabyte-scale data warehouse, and software toolchain – to help our partners drive the field forward.
We're looking for a Robotics Infrastructure Engineer to build the product and infrastructure that lets us and our partners deploy and evaluate learned robotis policies on real hardware. Examples of things you might work on are: deploying VLAs, imitation learning models, and DAgger workflows onto embodied systems, building the evaluation frameworks that measure how they perform, and shipping the product surfaces that make this accessible to partners.
Robotics Infrastructure engineers own the systems that get models running on robots and measure how well they work. Sample projects include:
deploying and running learned robot policies (VLAs, imitation learning, DAgger) on real hardware, including inference setup, on-robot tuning, and failure diagnosis
designing and building evaluation frameworks that benchmark policy performance on physical robots, with metric definition, result aggregation, and partner-facing reporting
building the product that lets partners configure, launch, and monitor evaluation runs and model deployments
building orchestration systems that schedule evaluation runs and model deployments across robot stations
integrating LLMs and foundation models into robot workflows for task specification, error recovery, or high-level planning
containerizing and packaging robot-side software stacks so new stations and deployments can be brought online quickly and consistently
bridging on-robot systems with cloud-side compute, storage, and orchestration