Papers
2
Total Citations
11
H-Index
2
About
Brandy Alger is a control theorist whose research focuses on the stabilization of nonholonomic systems—a class of mechanical systems with non-integrable velocity constraints, including mobile robots. Her work addresses a critical gap in robotics: designing sampled-data output feedback controllers that can be implemented in digital computers, where continuous-time control is impractical. In her most-cited paper (2014, 9 citations), Alger developed a controller for uncertain nonholonomic systems in chained form, demonstrating its application to mobile robots. This contribution is significant because it overcomes the limitations of traditional continuous-time control and handles system uncertainties, making it more robust for real-world deployment. Her subsequent work (2019) extended this framework to motor robots with two-dimensional Z-states, further advancing the field. While her citation counts are modest, Alger’s research is foundational for practitioners seeking practical, implementable control solutions for autonomous vehicles and robotic systems. Her work bridges theoretical control theory with digital implementation, a crucial step for modern robotics.
Research Focus
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Top Papers
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