Symbolic Dynamics and Controls of a Parallel Manipulator

Application of parallel manipulator has received lots
of attention recently in the industry and the robotic
community due to its high accuracy, high rigidity,
high operation speed, high load capacity and high
stiffness. Despite these advantages, the kinematic
and dynamic analyses of parallel manipulators are
extremely complicated. However, such models are
important in terms of qualitative analysis of the
required actuator forces to realize certain end-
effector task (inverse dynamics), and computing the
corresponding end-effector task based on certain
input to the system (forward dynamics). Till date,
not much general symbolic solution is reported to aid
the above process. Most of the prior work required
some form of heuristic, or introduction of extra
spring/damper elements to approximate the solutions.
This book addresses the possibility in using the
state-of-the-art symbolic manipulation software tool
DynaFlexPro to derive the general kinematic and
dynamic equation of motion so that more accurate and
convenient solution can be computed. We address these
issues using the example of Stewart Platform and
highlight the solution to the corresponding
challenges.

Autorentext

MSc., 26, Chinese nationality. From 2000 to 2004 she has studied Computer Science at the Hefei University of Technology in China. Directly afterwards, she enrolled in the Media Informatics Program at the Bonn-Aachen International Center for Information Technology and received her Master of Science degree from RWTH Aachen in March 2007.

Klappentext

Application of parallel manipulator has received lots of attention recently in the industry and the robotic community due to its high accuracy, high rigidity, high operation speed, high load capacity and high stiffness. Despite these advantages, the kinematic and dynamic analyses of parallel manipulators are extremely complicated. However, such models are important in terms of qualitative analysis of the required actuator forces to realize certain end-effector task (inverse dynamics), and computing the corresponding end-effector task based on certain input to the system (forward dynamics). Till date, not much general symbolic solution is reported to aid the above process. Most of the prior work required some form of heuristic, or introduction of extra spring/damper elements to approximate the solutions. This book addresses the possibility in using the state-of-the-art symbolic manipulation software tool DynaFlexPro to derive the general kinematic and dynamic equation of motion so that more accurate and convenient solution can be computed. We address these issues using the example of Stewart Platform and highlight the solution to the corresponding challenges.