Book contents
- Frontmatter
- Contents
- Preface
- I Introductory Material
- II Motion Planning
- 3 Geometric Representations and Transformations
- 4 The Configuration Space
- 5 Sampling-Based Motion Planning
- 6 Combinatorial Motion Planning
- 7 Extensions of Basic Motion Planning
- 8 Feedback Motion Planning
- III Decision-Theoretic Planning
- IV Planning Under Differential Constraints
- Bibliography
- Index
7 - Extensions of Basic Motion Planning
from II - Motion Planning
Published online by Cambridge University Press: 21 August 2009
- Frontmatter
- Contents
- Preface
- I Introductory Material
- II Motion Planning
- 3 Geometric Representations and Transformations
- 4 The Configuration Space
- 5 Sampling-Based Motion Planning
- 6 Combinatorial Motion Planning
- 7 Extensions of Basic Motion Planning
- 8 Feedback Motion Planning
- III Decision-Theoretic Planning
- IV Planning Under Differential Constraints
- Bibliography
- Index
Summary
This chapter presents many extensions and variations of the motion planning problem considered in Chapters 3 to 6. Each one of these can be considered as a “spin-off” that is fairly straightforward to describe using the mathematical concepts and algorithms introduced so far. Unlike the previous chapters, there is not much continuity in Chapter 7. Each problem is treated independently; therefore, it is safe to jump to whatever sections in the chapter you find interesting without fear of missing important details.
In many places throughout the chapter, a state space X will arise. This is consistent with the general planning notation used throughout the book. In Chapter 4, the C-space, C, was introduced, which can be considered as a special state space: It encodes the set of transformations that can be applied to a collection of bodies. Hence, Chapters 5 and 6 addressed planning in X = C. The C-space alone is insufficient for many of the problems in this chapter; therefore, X will be used because it appears to be more general. For most cases in this chapter, however, X is derived from one or more C-spaces. Thus, C-space and state space terminology will be used in combination.
Time-varying problems
This section brings time into the motion planning formulation. Although the robot has been allowed to move, it has been assumed so far that the obstacle region O and the goal configuration, qg ∈ Cfree, are stationary for all time.
- Type
- Chapter
- Information
- Planning Algorithms , pp. 257 - 303Publisher: Cambridge University PressPrint publication year: 2006