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Bioinspiration and Robotics:
Walking and Climbing Robots
Bioinspiration and Robotics:
Walking and Climbing Robots
Edited by
Maki K. Habib
I-Tech
IV
Published by Adva n ced Robotic Systems Interna tional and I-Tec h
I-Tech Education and Publishing
Vienna
Austria
Abstracting and non-profit use of the material is permitted with credit to the source. Statements and
opinions expressed in the chapters are these of the individual contributors and not necessarily those of
the editors or publisher. No responsibility is accepted for the accuracy of information contained in the
published articles. Publisher assumes no responsibility liability for any damage or injury to persons or
property arising out of the use of any materials, instructions, methods or ideas contained inside. After
this work has been published by the I-Tech Education and Publishing, authors have the right to repub-
lish it, in whole or part, in any publication of which they are an author or editor, and the make other
personal use of the work.
© 2007 I-Tech Education and Publishing
www.ars-journal.com
Additional copies can be obtained from:
publication@ars-journal.com
First published September 2007
Printed in Croatia
A catalogue record for this book is available from the Austrian Library.
Bioinspiration a nd Robotics: Walking and Climbing Robots, Edited by Maki K. Habib
p. cm.
ISBN 978-3-902613-15-8
1. Walking Robots. 2. Climbing Robots. I. Maki K. Habib
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V
Preface
A large number of robots have been developed, and researchers continue to design
new robots with greater capabilities to perform more challenging and comprehen-
sive tasks. Between the 60s and end of 80s, most robot applications were related to
industries and manufacturing, such as assembly, welding, painting, material han-
dling, packaging, etc. However, the state-of-the-art in micro-technology, micro-
processors, sensor technology, smart materials, signal processing and computing
technologies, information and communication technologies, navigation technol-
ogy, and the biological inspiration in developing learning and decision-making
paradigms, MEMs, etc. have raised the demand for innovative solutions targeting
new areas of potential applications. This led to breakthrough in the invention of a
new generation of robots called service robots. The new types of robots aim to
achieve high level of intelligence, functionality, modularity, flexibility, adaptabil-
ity, mobility, intractability, and efficiency to perform wide range of tasks in com-
plex and hazardous environment, and to provide and perform services of various
kinds to human users and society. Service robots are manipulative and dexterous,
and have the capability to interact with human, perform tasks autonomously,
semi-autonomously (multi modes operation), and they are portable. Crucial pre-
requisites for performing services are safety, mobility, and autonomy supported by
strong sensory perception. Wide range of applications can be covered by service
robots, such as in agriculture & harvesting, healthcare/rehabilitation, cleaning
(house, public, industry), construction, humanitarian demining, entertainment, fire
fighting, hobby/leisure, hotel/restaurant, marketing, food industry, medical, min-
ing, surveillance, inspection and maintenance, search & rescue, guides & office,
nuclear power plant, transport, refilling & refuelling, hazardous environments,
military, sporting, space, underwater, etc.
Different locomotion mechanisms have been developed to enable an intelligent ro-
bot to move flexibly and reliably across a variety of ground surfaces, such as
wheels, crawlers, legs, etc. to support crawling, rolling, walking, climbing, jump-
ing, etc. types of movement. The application fields of such locomotion mechanisms
are naturally restricted, depending on the condition of the ground. In order to have
good mobility over uneven and rough terrain a legged robot seems to be a good
solution because legged locomotion is mechanically superior to wheeled or tracked
locomotion over a variety of soil conditions and certainly superior for crossing ob-
stacles. In addition, the potential is enormous for wall and pipe climbing robots
that can work in extremely hazardous environments, such as atomic energy,
chemical compounds, high-rise buildings and large ships. The focus on developing
such robots has intensified while novel and bio-inspired solutions for complex and
very diverse applications have been anticipated by means of significant progress in
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