Abstract
Planar, underactuated, biped walkers form an important domain of applications for hybrid dynamical systems. This paper presents the design of exponentially stable walking controllers for general planar bipedal systems that have one degree-of-freedom greater than the number of available actuators. The within-step control action creates an attracting invariant set - a two-dimensional zero dynamics submanifold of the full hybrid model $whose restriction dynamics admits a scalar linear time-invariant return map. Exponentially stable periodic orbits of the zero dynamics correspond to exponentially stabilizable orbits of the full model. A convenient parameterization of the hybrid zero dynamics is imposed through the…
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3Topics & keywords
Topics
Keywords
- Control theory (sociology)
- Kinematics
- Mathematics
- Underactuation
- Scalar (mathematics)
- Planar
- Exponential stability
- Invariant (physics)
UN Sustainable Development Goals
- Affordable and clean energy
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