Abstract
Given a proposed unconventional computing substrate, we can ask: Does it actually compute? If so, how well does it compute? Can it be made to compute better? Given a proposed unconventional computational model we can ask: How powerful is the model? Can it be implemented in a substrate? How faithfully or efficiently can it be implemented? Given complete freedom in the choice of model and substrate, we can ask: Can we co-design a model and substrate to work well together?
Here I propose an approach to posing and answering these questions, building on an existing definition of physical computing and framework for characterising the computing properties of given substrates.
Here I propose an approach to posing and answering these questions, building on an existing definition of physical computing and framework for characterising the computing properties of given substrates.
Original language | English |
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Pages | 5–14 |
Number of pages | 10 |
DOIs | |
Publication status | Published - 2019 |
Event | UCNC 2019, Tokyo, Japan, June 2019 - Tokyo, Japan Duration: 3 Jun 2019 → 7 Jun 2019 http://www.ucnc2019.uec.ac.jp/ |
Conference
Conference | UCNC 2019, Tokyo, Japan, June 2019 |
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Country/Territory | Japan |
City | Tokyo |
Period | 3/06/19 → 7/06/19 |
Internet address |