IEEE Transactions on Automatic Control · 2001 · 343 citations · 38 references
Natural SciencesMechanical EngineeringDynamical SystemsRobot DynamicsRobot KinematicsControl Of Dynamical SystemsControl SystemsControl TheoryLagrangian DynamicsLagrangian MechanicsNonlinear ControlDissipationLagrangian FormulationLagrangian SystemsState VariablesState-space StructureTrajectory Stabilization
For pt.I, see ibid., vol.45, p.2253-70 (2000). We extend the method of controlled Lagrangians (CL) to include potential shaping, which achieves complete state-space asymptotic stabilization of mechanical systems. The CL method deals with mechanical systems with symmetry and provides symmetry-preserving kinetic shaping and feedback-controlled dissipation for state-space stabilization in all but the symmetry variables. Potential shaping complements the kinetic shaping by breaking symmetry and stabilizing the remaining state variables. The approach also extends the method of controlled Lagrangians to include a class of mechanical systems without symmetry such as the inverted pendulum on a cart that travels along an incline.
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The swing up control problem for the Acrobot
Mark W. Spong · IEEE Control Systems · 1995 · 950 citations
Engineering, Mechanical Engineering, Robotics Engineering +17
Swinging up a pendulum by energy control
Karl Johan Åström, K. Furuta · Automatica · 2000 · 909 citations