Attitude Control of Rigid Bodies: A Survey of Representations, Topological Obstructions, and Stabilization Techniques
Hongye Su, Dandan Zhang

TL;DR
This survey comprehensively reviews various attitude representations for rigid bodies, their topological limitations, and stabilization techniques, highlighting the advantages and drawbacks of each method in control applications.
Contribution
It provides a detailed comparison of attitude representations, explores their topological issues, and analyzes different control laws and robustness techniques in a unified framework.
Findings
Rotation matrix offers global, unique attitude representation without singularities.
Euler angles and Rodrigues parameters have kinematic and geometric singularities.
Quaternion representation can cause unwinding despite computational efficiency.
Abstract
This paper reviews the attitude control problems for rigid-body systems, starting from the attitude representation for rigid body kinematics. Highly redundant rotation matrix defines the attitude orientation globally and uniquely by 9 parameters, which is the most fundamental one, without any singularities; minimum 3-parameter Euler angles or (modified) Rodrigues parameters define the attitude orientation neither globally nor uniquely, but the former exhibits kinematical singularity and Gimbal lock, while the latter two exhibit geometrical singularity; once-redundant axis-angle or unit quaternion globally define the attitude rotation but not uniquely using 4 parameters, but the former is not appropriate to define very small or very large rotations, while the latter shows unwinding phenomenon despite of the reduced computation burden. In addition, we explore the relationships among those…
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Taxonomy
TopicsControl and Dynamics of Mobile Robots · Inertial Sensor and Navigation · Adaptive Control of Nonlinear Systems
