Control of mechanical systems
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- A review paper on geometric methods in control theory for mechanical
systems
Reference: The bountiful intersection of differential
geometry, geometric mechanics, and geometric control theory
- Low-order controllability is connected with simple motion planning
algorithms
Reference: Low-order controllability and kinematic reductions
for affine connection control systems
- The mechanical meaning of ``linearly controllable''
Reference: The linearisation of a simple mechanical control
system
- Basic discussion of controllability for ``simple mechanical control
systems.'' This work gives the necessary and sufficient conditions for
local configuration accessibility, and some too strong sufficient conditions
for local configuration controllability
Reference: Configuration controllability of simple mechanical
systems
- Generalisation to systems with constraints of previous work
Reference: Simple mechanical control systems with
constraints
- Single-input affine connection control systems are uncontrollable
Reference: Local configuration controllability for a class
of mechanical systems with a single input
- A discussion of the relationship between motion planning and low-order
local controllability for affine connection control systems
Reference: Controllable kinematic reductions for mechanical
systems: concepts, computational tools, and examples
- An explicit motion planning algorithm for the snakeboard
Reference: Kinematic controllability and motion planning for
the snakeboard
- Some motion control primitives for systems on Lie groups with certain
controllability properties
Reference: Controllability and motion algorithms for
underactuated Lagrangian systems on Lie groups
- An investigation of force and time-optimal control for a planar rigid
body
Reference:
Optimal control for a simplified hovercraft model
- Basics of time-optimal control for affine connection control systems,
and an application to the robotic leg and the planar rigid body
Reference: Time-optimal control of two simple mechanical
systems with three degrees of freedom and two inputs
- The derivation of the ``adjoint Jacobi equation'' from the Pontryagin
maximum principle for affine connection control systems. The setting in
this paper is quite general
Reference:
The geometry of the maximum principle for affine connection control systems
- Integrability conditions for joint partial differential equations of
kinetic and potential energy shaping
Reference: A geometric framework for stabilization by energy
shaping: Sufficient conditions for existence of solutions
- Integrability conditions for the partial differential equations of
potential energy shaping
Reference: Potential energy shaping after kinetic energy
shaping
- Formulation of the energy shaping partial differential equations using
differential and affine differential geometry
Reference: Notes on energy shaping
Andrew D. Lewis (andrew at mast.queensu.ca)