Autonomously Moving Colloidal Objects that Resemble Living Matter
The design of autonomously moving objects that resemble living matter is an excellent research topic that may develop into various applications of functional motion. Autonomous motion can demonstrate numerous significant characteristics such as transduction of chemical potential into work without he...
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2010-11-01
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doaj-27ce52a245bc490b97035e95fbafb6ae2020-11-24T23:57:20ZengMDPI AGEntropy1099-43002010-11-0112112308233210.3390/e12112308Autonomously Moving Colloidal Objects that Resemble Living MatterYouichi MorimuneTakahiko BanAkihisa ShioiThe design of autonomously moving objects that resemble living matter is an excellent research topic that may develop into various applications of functional motion. Autonomous motion can demonstrate numerous significant characteristics such as transduction of chemical potential into work without heat, chemosensitive motion, chemotactic and phototactic motions, and pulse-like motion with periodicities responding to the chemical environment. Sustainable motion can be realized with an open system that exchanges heat and matter across its interface. Hence the autonomously moving object has a colloidal scale with a large specific area. This article reviews several examples of systems with such characteristics that have been studied, focusing on chemical systems containing amphiphilic molecules. http://www.mdpi.com/1099-4300/12/11/2308/autonomous motioncolloidal objectsnonlinear dynamicschemomechanical energy conversion |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Youichi Morimune Takahiko Ban Akihisa Shioi |
spellingShingle |
Youichi Morimune Takahiko Ban Akihisa Shioi Autonomously Moving Colloidal Objects that Resemble Living Matter Entropy autonomous motion colloidal objects nonlinear dynamics chemomechanical energy conversion |
author_facet |
Youichi Morimune Takahiko Ban Akihisa Shioi |
author_sort |
Youichi Morimune |
title |
Autonomously Moving Colloidal Objects that Resemble Living Matter |
title_short |
Autonomously Moving Colloidal Objects that Resemble Living Matter |
title_full |
Autonomously Moving Colloidal Objects that Resemble Living Matter |
title_fullStr |
Autonomously Moving Colloidal Objects that Resemble Living Matter |
title_full_unstemmed |
Autonomously Moving Colloidal Objects that Resemble Living Matter |
title_sort |
autonomously moving colloidal objects that resemble living matter |
publisher |
MDPI AG |
series |
Entropy |
issn |
1099-4300 |
publishDate |
2010-11-01 |
description |
The design of autonomously moving objects that resemble living matter is an excellent research topic that may develop into various applications of functional motion. Autonomous motion can demonstrate numerous significant characteristics such as transduction of chemical potential into work without heat, chemosensitive motion, chemotactic and phototactic motions, and pulse-like motion with periodicities responding to the chemical environment. Sustainable motion can be realized with an open system that exchanges heat and matter across its interface. Hence the autonomously moving object has a colloidal scale with a large specific area. This article reviews several examples of systems with such characteristics that have been studied, focusing on chemical systems containing amphiphilic molecules. |
topic |
autonomous motion colloidal objects nonlinear dynamics chemomechanical energy conversion |
url |
http://www.mdpi.com/1099-4300/12/11/2308/ |
work_keys_str_mv |
AT youichimorimune autonomouslymovingcolloidalobjectsthatresemblelivingmatter AT takahikoban autonomouslymovingcolloidalobjectsthatresemblelivingmatter AT akihisashioi autonomouslymovingcolloidalobjectsthatresemblelivingmatter |
_version_ |
1725454470611992576 |