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Jinya Su

5 accepted papers

2026

PRED-MPPI: Disturbance-Preview and Efficient MPPI for Robust Quadrotor Tracking with Hardware Validation

ICRA 2026poster

We propose PRED-MPPI, the first MPPI variant that seamlessly integrates real-time disturbance preview and adaptive discretization for quadrotor tracking control under significant model inaccuracies and time-varying disturbances. Unlike prior MPPI variants (e.g., mathcal{L}_1-MPPI, DA-MPPI), which as…

Cited by 0codeScholar
2026

Two-Time-Scale Composite Learning Online Identification and Control for Compliant-Joint Robots

ICRA 2026poster

SP-based synthesis yields two-time-scale control that allows compliant-joint robots to achieve high-quality tracking at low implementation cost. Composite learning enables exact online identification and control of robots without the stringent condition known as persistent excitation (PE). However, …

Cited by 0Scholar
2025

DA-MPPI: Disturbance-Aware Model Predictive Path Integral via active disturbance estimation and compensation

IROS 2025

Model Predictive Path Integral (MPPI) controllers are drawing increasing attention for their ability to efficiently handle complex systems by leveraging GPU acceleration while with flexible prediction models and cost functions. However, their performance generally degrades with low-quality predictio

Cited by 2SourceScholar
2025

DR-MPC: Disturbance-Resilient Model Predictive Visual Servoing Control for Quadrotor UAV Pipeline Inspect

IROS 2025

Unmanned Aerial Vehicles (UAVs) are gaining attention for inspections due to their improved safety, efficiency, and accuracy, alongside reduced costs and environmental risks. Visual servoing is crucial for autonomous UAV flight in GPS-degraded environments, guiding the UAV by minimizing errors betwe

Cited by 3SourceScholar
2025

Pet-NODE Modeling: Embedding Priors and Time-Series Features into Neural ODE

IROS 2025

Accurate modeling of dynamic systems is essential for robotics, enhancing system perception and control performance. This work tackles causal modeling challenges for mobile robots under complex uncertainties, including internal model inaccuracies and external environmental disturbances. Unlike first

Cited by 0SourceScholar