Skydio Autonomy Engineer Intern, Reinforcement Learning at Skydio develops and deploys reinforcement learning policies for autonomous drones. The role involves training navigation and avoidance policies and validating them on real drones.
Responsibilities
Skydio builds the world’s most advanced autonomous drones used across inspection, public safety, defense, cinematography, and more. Your research won’t languish in a paper: it will fly, shaping how pilots and operators complete real missions in complex environments. Develop and deploy reinforcement learning (and adjacent policy-learning methods) that make Skydio aircraft plan, navigate, and control themselves more intelligently, safely, reliably, and efficiently across our ecosystem: handheld apps, ground control, cloud autonomy services, and fleet workflows.
How you'll make an impact:
Navigation & avoidance in the wild: Train policies that adapt online to cluttered 3D scenes (forests, bridges, urban canyons), complementing our stack for robust obstacle avoidance and dynamic goal-seeking.
RL-augmented planning: Fuse learned cost shaping / value functions with trajectory optimization for smooth, agile flight with tight safety envelopes and mission constraints.
Sim to Real at scale: Build scalable datasets and training loops with Isaac Lab, domain randomization, residual learning, and safety filters; validate on real drones weekly.
Human-in-the-loop shared control: Learn assistive policies that blend pilot intent, autonomy priors, and uncertainty-aware behaviors for intuitive control handoffs.
Fleet & multi-agent: Explore decentralized coordination for coverage, pursuit, and collaborative mapping with minimal comms.
What makes this internship different:
Real hardware cadence: Prototype in sim, then flight test on production-ready aircraft and edge compute. Your work is meant to make a difference in the real world, not just in simulation.
Safety-first learning: We pair RL with formal constraints, estimation of uncertainty, and conservative action filters for dependable deployment in human environments.
Cross-disciplinary mentorship: Collaborate with perception, mapping, controls, and product teams to close the loop from research to field ops.
What makes you a strong fit:
Qualification
PhD student in RoboticsStrong fundamentals in RLPublications (CoRL
Required
PhD student in Robotics, Machine Learning, Controls, or related field
Strong fundamentals in RL, control theory, and motion planning
Proficient in Python (PyTorch/JAX/Ray RLlib) and at least one of C++ or CUDA
Hands-on experience with robotics simulation (Isaac Lab/MuJoCo/PyBullet) and sim2real techniques
Experience training/deploying policies for navigation, manipulation, or locomotion on real robots or autonomous vehicles
Preferred
Publications (CoRL, ICRA, IROS, RSS, NeurIPS).
Experience with onboard inference optimization (TensorRT, quantization, sparsity).
Familiarity with modern policy learning beyond vanilla RL: diffusion policies, IL/BC, offline RL, model-based RL.
Experience with multi-agent RL or distributed training.
