Advancements in Quadrotor Control and Navigation

The field of quadrotor research is moving towards developing more robust and efficient control systems, with a focus on adaptive estimation and navigation in complex environments. Recent studies have explored the use of innovative approaches such as adaptive MARG-only heading estimation, rotor-failure-aware navigation, and data-driven estimation of motor efficiency. These advancements have the potential to significantly improve the accuracy and reliability of quadrotor systems, enabling their use in a wider range of applications. Notable papers in this area include: AMO-HEAD, which presents a lightweight and computationally efficient Extended Kalman Filter framework for heading estimation, and Rotor-Failure-Aware Quadrotors Flight, which demonstrates a rotor-failure-aware navigation system for autonomous flight in unknown environments. Other notable papers include DQ-NMPC, which proposes a novel NMPC framework based on dual-quaternions for quadrotor flight, and Learning Robust Agile Flight Control, which presents a neural-augmented feedback controller for agile flight control with stability guarantees.

Sources

AMO-HEAD: Adaptive MARG-Only Heading Estimation for UAVs under Magnetic Disturbances

Rotor-Failure-Aware Quadrotors Flight in Unknown Environments

Data-Driven Estimation of Quadrotor Motor Efficiency via Residual Minimization

Trajectory control of a suspended load with non-stopping flying carriers

DQ-NMPC: Dual-Quaternion NMPC for Quadrotor Flight

A Unidirectionally Connected FAS Approach for 6-DOF Quadrotor Control

Learning Robust Agile Flight Control with Stability Guarantees

Geometric Model Predictive Path Integral for Agile UAV Control with Online Collision Avoidance

Partial Feedback Linearization Control of a Cable-Suspended Multirotor Platform for Stabilization of an Attached Load

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