FREE ACCESS
5,000–10,000 jobs/day
See all jobs on Scoutfield
Search thousands of fresh jobs every day.
Discover
- Fresh listings
- Fast filters
- No subscription required
Create a free account and start exploring right away.

Robotics Reinforcement Learning Engineer – Reinforcement Learning, Sim2Real
Asiacruit. Develop and train reinforcement learning policies for quadruped locomotion using NVIDIA Isaac Lab, Isaac Gym, RaiSim, or comparable robotics simulation environments .
Core Competencies
Role fitCore Competencies
Use this summary to align your resume positioning with the role.
Demonstrates expertise in developing and optimizing reinforcement learning algorithms for quadruped locomotion, with a strong focus on real-time control and Sim-to-Real transfer. Proficient in utilizing advanced robotics simulation environments and deploying machine learning models on robotic hardware.
Highest-signal resume keywords
Reinforcement Learning AlgorithmsNVIDIA Isaac LabPPO ImplementationPython ProgrammingC++ Deployment
ATS Keywords
Tailor your resumeApplicant Tracking System Keywords
Tip: use these terms in your resume and cover letter to boost ATS matches.
Hard Skills
Reinforcement LearningLocomotion ControlDomain RandomizationSimulation BenchmarkingNeural Network PoliciesRobotics SimulationFoot-Contact EstimationSlip DetectionMotor DynamicsReal-Time Control
Soft Skills
Analytical SkillsTroubleshooting Skills
Tools & Technologies
PyTorchONNX RuntimeLibTorchIsaac GymRaiSimMuJoCo
Industry Keywords
RoboticsAutonomous RoboticsLegged RoboticsContact-Rich ControlSim-to-Real Transfer
Tech Stack
Tools & technologiesPythonPyTorchC++
About the role
Key responsibilities & impact- Develop and train reinforcement learning policies for quadruped locomotion using NVIDIA Isaac Lab, Isaac Gym, RaiSim, or comparable robotics simulation environments
- Train large-scale parallel locomotion policies across diverse terrain conditions, including uneven surfaces, varying friction, and dynamic disturbances
- Implement blind and vision-assisted locomotion policies
- Design and refine domain randomization strategies covering surface friction, motor latency, payload variations, mass distribution, and other physical parameters
- Improve Sim-to-Real transfer for policies deployed on physical robotic hardware
- Develop and optimize reinforcement learning algorithms, including PPO, using PyTorch
- Deploy trained neural network policies using C++, ONNX Runtime, LibTorch, or other inference frameworks
- Optimize policy inference latency and execution frequency for real-time locomotion control
- Integrate foot-contact estimation, slip detection, and reflex mechanisms
- Evaluate locomotion performance through simulation benchmarks and real-world testing, identify failure modes, and implement improvements
- Collaborate with robotics controls, simulation, and embedded systems engineers on end-to-end robotic autonomy systems
Requirements
What you’ll need- Bachelor's or Master's degree in Robotics, Computer Science, Electrical Engineering, Mechanical Engineering, Control Systems, or a related field
- Approximately 3–5 years of relevant experience in reinforcement learning, robot learning, locomotion control, or autonomous robotics
- Strong programming skills in Python and practical experience with PyTorch
- Experience implementing reinforcement learning algorithms, particularly PPO or other policy optimization methods
- Hands-on experience with NVIDIA Isaac Lab, Isaac Gym, RaiSim, MuJoCo, or comparable physics-based robotics simulators
- Understanding of legged robotics, locomotion dynamics, robot balance, or contact-rich control
- Practical knowledge of domain randomization, system identification, or other techniques for improving Sim-to-Real transfer
- Experience with C++ and deploying machine learning models on robotic hardware or edge computing platforms
- Familiarity with ONNX Runtime, LibTorch, or other low-latency model inference frameworks is an advantage
- Understanding of foot-contact estimation, slip detection, motor dynamics, or real-time control is a plus
- Strong analytical and troubleshooting skills, with the ability to investigate simulation failures and validate solutions on physical robots