About The Position

At Rhoda AI, we're building the full-stack foundation for the next generation of humanoid robots — from high-performance, software-defined hardware to the foundational models and video world models that control it. Our robots are designed to be generalists capable of operating in complex, real-world environments and handling scenarios unseen in training. We work at the intersection of large-scale learning, robotics, and systems, with a research team that includes researchers from Stanford, Berkeley, Harvard, and beyond. We're not building a feature; we're building a new computing platform for physical work — and with over $400M raised, we're investing aggressively in the R&D, hardware development, and manufacturing scale-up to make that a reality. We're looking for Research Scientists and Research Engineers with deep robotics or autonomous systems domain knowledge to adapt our web-pretrained video model to real robot tasks. Post-training at Rhoda means taking a causal video generation model pretrained on internet-scale data and fine-tuning it on robot-collected demonstrations to produce reliable, generalizable behavior — with as little task-specific data as possible. We hire across levels — from senior to staff.

Requirements

  • Hands-on experience with robot systems, robotic policy learning, or autonomous systems in an industry or research setting (robotics, self-driving, or similar physical AI domains)
  • Strong understanding of robot policy learning: imitation learning, behavior cloning, and how RL builds on top of it
  • Practical familiarity with real robot hardware, deployment constraints, and sensor modalities (vision, proprioception)
  • Solid ML skills with hands-on PyTorch experience
  • Ability to diagnose policy failures, reason about distribution shift, and iterate effectively on data and training strategies
  • Comfort with ambiguity and fast-changing research priorities
  • Staff-level candidates are expected to define technical direction and drive research strategy independently; senior candidates execute complex projects with strong fundamentals and growing scope

Nice To Haves

  • Hands-on experience with reinforcement learning — reward design, policy optimization, and online RL training loops — applied to real or near-real environments (robotics, games, simulated physics, or similar); this is a significant plus
  • Prior industry experience in robotics, autonomous driving, or physical AI (e.g., manipulation, mobile robotics, self-driving stacks)
  • Experience with teleoperation systems or robot demonstration collection at scale
  • Familiarity with robot middleware (ROS/ROS2) and real-time control systems
  • Experience with simulation environments for robotics (MuJoCo, Isaac Sim, Genesis)
  • Understanding of video generation models and how they connect to action prediction
  • PhD in Robotics, ML, or a related field
  • Publication record at ICRA, CoRL, RSS, NeurIPS, or related venues

Responsibilities

  • Design and implement RL training pipelines to improve robot policy performance beyond what imitation learning alone achieves — reward design, online data collection, and policy optimization
  • Develop and apply RL algorithms (PPO, GRPO, or similar) adapted to the video prediction setting, including reward modeling and feedback collection strategies for physical task performance
  • Design and implement broader post-training pipelines: supervised fine-tuning, preference optimization, and behavioral alignment on robot-collected demonstration data
  • Work on the inverse dynamics model that translates video predictions into executable robot actions
  • Build evaluation frameworks for post-trained policies: task success, generalization to novel objects and environments, and failure mode analysis on real hardware
  • Research methods to efficiently adapt models to new tasks with minimal demonstration data, including in-context generalization and few-shot adaptation
  • Identify failure modes and systematic weaknesses in deployed robot policies and drive targeted improvements
  • Iterate quickly between simulation and real robot evaluation to close the feedback loop
  • Collaborate with the pre-training team to surface what capabilities are missing from the base model and need to be addressed upstream

Benefits

  • Your work is what makes our robots actually perform tasks reliably in the real world — the direct connection between pre-trained capability and deployed behavior
  • Work at a rare intersection: state-of-the-art video generation models applied to real robot hardware, not simulation
  • Fast feedback loop between model changes and real robot performance
  • High ownership on a small team where robotics domain expertise is core to the mission
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