This book is an introduction to the mathematical theory of
design for articulated mechanical systems known as linkages. The
focus is on sizing mechanical constraints that guide the movement
of a work piece, or end-effector, of the system. The function of
the device is prescribed as a set of positions to be reachable by
the end-effector; and the mechanical constraints are formed by
joints that limit relative movement. The goal is to find all the
devices that can achieve a specific task. Formulated in this way
the design problem is purely geometric in character. Robot
manipulators, walking machines, and mechanical hands are examples
of articulated mechanical systems that rely on simple mechanical
constraints to provide a complex workspace for the end- effector.
The principles presented in this book form the foundation for a
design theory for these devices. The emphasis, however, is on
articulated systems with fewer degrees of freedom than that of the
typical robotic system, and therefore, less complexity. This book
will be useful to mathematics, engineering and computer science
departments teaching courses on mathematical modeling of robotics
and other articulated mechanical systems.
This new edition includes research results of the past decade on
the synthesis of multi loop planar and spherical linkages, and the
use of homotopy methods and Clifford algebras in the synthesis of
spatial serial chains. One new chapter on the synthesis of spatial
serial chains introduces numerical homotopy and the linear product
decomposition of polynomial systems. The second new chapter
introduces the Clifford algebra formulation of the kinematics
equations of serial chain robots. Examples are use throughout to
demonstrate the theory."
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