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Morph-ology Movie fans remember Robert Patrick’s wildly morphing bad guy ro- bot in 1991’s Terminator 2 (though he never actually grew a Swiss army knife out of an index finger). Carnegie Mellon researchers are developing their own shape-shifting technology, which would use millions of tiny, ball-shaped robots called “catoms” to form human- oids or other shapes that also could move. Thin, hair-like strands on the surface would hold the catoms together, much like a the foot hairs of a gecko allow the lizard to cling to walls and ceilings. Programmable electromagnets cover the surface, allowing catoms to attract each other and move against each other. Light-emitting diodes would allow them to change color, while photo cells would let them sense light. Catoms Each catom would contain its own computer and like- ly would identify itself in the computer network based on its function –– for example, a catom might identify itself as part of a human finger. For more information and for simulations of catom movement, visit CMU’s Claytronics Web site: www-2.cs.cmu.edu/~claytronics/ James Hilston/Post-Gazette Source: Carnegie Mellon University

Morph-ology - Pittsburgh Post-Gazetteold.post-gazette.com/downloads/20050516jh_claytronics.pdf · 2005. 5. 16. · Morph-ology Movie fans remember Robert Patrick’s wildly morphing

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Page 1: Morph-ology - Pittsburgh Post-Gazetteold.post-gazette.com/downloads/20050516jh_claytronics.pdf · 2005. 5. 16. · Morph-ology Movie fans remember Robert Patrick’s wildly morphing

Morph-ology Movie fans remember Robert Patrick’s wildly morphing bad guy ro-bot in 1991’s Terminator 2 (though he never actually grew a Swiss army knife out of an index finger). Carnegie Mellon researchers are developing their own shape-shifting technology, which would use millions of tiny, ball-shaped robots called “catoms” to form human-oids or other shapes that also could move.

Thin, hair-like strands on the surface would hold the catoms together, much like a the foot hairs of a gecko allow the lizard to cling to walls and ceilings.

Programmable electromagnets cover the surface, allowing catoms to attract each other and move against each other.

Light-emitting diodes would allow them to change color, while photo cells would let them sense light.

Catoms

Each catom would contain its own computer and like-ly would identify itself in the computer network based on its function –– for example, a catom might identify itself as part of a human finger.

For more information and for simulations of catom movement, visit CMU’s Claytronics Web site: www-2.cs.cmu.edu/~claytronics/

James Hilston/Post-GazetteSource: Carnegie Mellon University