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Kasper Støy

Titles by This Author

An Introduction

Self-reconfigurable robots are constructed of robotic modules that can be connected in many different ways. These modules move in relationship to each other, which allows the robot as a whole to change shape. This shapeshifting makes it possible for the robots to adapt and optimize their shapes for different tasks. Thus, a self-reconfigurable robot can first assume the shape of a rolling track to cover distance quickly, then the shape of a snake to explore a narrow space, and finally the shape of a hexapod to carry an artifact back to the starting point. The field of self-reconfigurable robots has seen significant progress over the last twenty years, and this book collects and synthesizes existing research previously only available in widely scattered individual papers, offering an accessible guide to the latest information on self-reconfigurable robots for researchers and students interested in the field.

Self-Reconfigurable Robots focuses on conveying the intuition behind the design and control of self-reconfigurable robots rather than technical details. Suggestions for further reading refer readers to the underlying sources of technical information. The book includes descriptions of existing robots and a brief history of the field; discussion of module design considerations, including module geometry, connector design, and computing and communication infrastructure; an in-depth presentation of strategies for controlling self-reconfiguration and locomotion; and exploration of future research challenges.

Intelligent Robotics and Autonomous Agents series

 

Titles by This Editor

The switched sequence of the concepts "Simulation" and "Synthesis" in the title of the conference emphasizes some changes within the Alife community. The Alife XII submissions consist of a significantly higher fraction of wet Alife papers than at any earlier Alife conference. The submissions are also congruent with a clearer view in the broader scientific community on how we might create life either from scratch or through top-down design.

Significant progress has also been made for life-like robotics systems—for example, through the development of polymorphic robots, where simple self-assembly, self-replication, and complex collective behavior now have been obtained.

In general, these proceedings demonstrate more integration between wet, hard, soft, and mixed living systems both within the Alife community and across the broader scientific and technological landscapes. This is in part captured by the definition of emerging living technology which comprises all technological applications of living and life-like processes at all levels.

As the Alife community inches closer to an understanding of life as a physical process by constructing living processes, it is also increasingly assessing the technological implications of the ability to engineer systems, whose power is based on the core features of life: robustness, adaptation, self-repair, self-assembly, and self-replication, centralized and distributed intelligence, and evolution.