Departmental Papers (ESE)

Robotics in Scansorial Environments

Kellar Autumn, Lewis & Clark College
Martin Buehler, Boston Dynamics
Mark Cutkosky, Stanford University
Ronald Fearing, University of California - Berkeley
Robert J. Full, University of California - Berkeley
Daniel Goldman, University of California - Berkeley
Richard Groff, University of California - Berkeley
William Provancher, Stanford University
Alfred A. Rizzi, Carnegie Mellon University
Uluc Saranli, Carnegie Mellon University
Aaron Saunders, Boston Dynamics
Daniel E. Koditschek, University of Pennsylvania

Document Type Conference Paper

BibTeX entry

@inproceedings{Autumn-SPIE-2005, author = {Kellar Autumn and Martin Buehler et al}, title = {Robotics in Scansorial Environments}, booktitle = {Proceedings SPIE}, year = {2005}, }


We review a large multidisciplinary effort to develop a family of autonomous robots capable of rapid, agile maneuvers in and around natural and artificial vertical terrains such as walls, cliffs, caves, trees and rubble. Our robot designs are inspired by (but not direct copies of) biological climbers such as cockroaches, geckos, and squirrels. We are incorporating advanced materials (e.g., synthetic gecko hairs) into these designs and fabricating them using state of the art rapid prototyping techniques (e.g., shape deposition manufacturing) that permit multiple iterations of design and testing with an effective integration path for the novel materials and components. We are developing novel motion control techniques to support dexterous climbing behaviors that are inspired by neuroethological studies of animals and descended from earlier frameworks that have proven analytically tractable and empirically sound. Our near term behavioral targets call for vertical climbing on soft (e.g., bark) or rough surfaces and for ascents on smooth, hard steep inclines (e.g., 60 degree slopes on metal or glass sheets) at one body length per second.

This work is supported in part by the Division of Central Intelligence under the Postdoctoral Research Fellowship Program and in part by Defense Advanced Research Projects Agency within the DSO iodynotics Program under contract DARPA/SPAWAR N66001–03-C-8045.

For more information: Kod*Lab


Date Posted: 28 October 2013

This document has been peer reviewed.