Drag-Aware Quadrotor Planning & Sim-to-Real Validation
Learned a tracking-cost model from 200,000 simulated trajectories and integrated it into trajectory optimization with an SE(3) controller, then validated the planner on Crazyflie hardware.
ROBOTICS · AI/ML · AUTONOMOUS SYSTEMS
I’m 张涵俐 Hanli Zhang, a robotics researcher at EPFL LASA under the supervision of Prof. Aude Billard, based in Lausanne, Switzerland.
My work connects learning, planning, perception, and control—then tests the result on real robotic systems.
SELECTED WORK
Projects spanning aerial robotics, embedded perception, robot learning, and visual SLAM—with demos, code, papers, and reports where available.
Learned a tracking-cost model from 200,000 simulated trajectories and integrated it into trajectory optimization with an SE(3) controller, then validated the planner on Crazyflie hardware.
Built a monocular-depth perception and navigation stack combining MiDaS, rangefinder calibration, and depth-guided Follow-the-Gap control. Optimized inference with ONNX/TensorRT for edge deployment.
Extended MonoGS with loop closure, Gaussian-aware covisibility, pose-graph optimization, global bundle adjustment, and CUDA rasterizer visibility metrics.
Supervised and evaluated a planner using structured action primitives, feedback loops, recovery logic, and retune-vs-replan decisions.
EXPERIENCE
Experience across human-robot interaction, mobile robots, aerial systems, state estimation, and deployment debugging.
Researching coordination-aware modeling for multi-limb human-robot interaction, combining stable dynamical-system motion primitives with cross-limb coupling.
Built a VINS-Fusion visual-inertial state-estimation pipeline with panoramic camera and IMU data, reducing outdoor tracking error by 15%.
Improved AGV localization to ±5 mm pose accuracy, reduced pose-loss events by 30%, refactored 12 ROS/C++ modules, and resolved 30+ field issues.
TOOLKIT
ROS1/2, SLAM, localization, mapping, state estimation, sensor fusion
Optimal control, motion planning, trajectory optimization, dynamical systems
PyTorch, JAX, TensorFlow, OpenCV, LLM planning and evaluation
C/C++, Python, ONNX, TensorRT, NVIDIA Jetson, Linux, Docker, Git
ROBOTICS RÉSUMÉ
The project, paper, code, and report links inside the PDF are clickable.