Your browser doesn't support javascript.
loading
Show: 20 | 50 | 100
Results 1 - 2 de 2
Filter
Add more filters











Database
Language
Publication year range
1.
Nanoscale ; 5(8): 3182-93, 2013 Apr 21.
Article in English | MEDLINE | ID: mdl-23471173

ABSTRACT

From the viewpoint of developing photoresponsive supramolecular systems in microenvironments to exhibit more sophisticated photo-functions even at the macroscopic level, inorganic/organic hybrid compounds based on clay or niobate nanosheets as the microenvironments were prepared, characterized, and examined for their photoreactions. We show here a novel type of artificial muscle model unit having much similarity with that in natural muscle fibrils. Upon photoirradiation, the organic/inorganic hybrid nanosheets reversibly slide horizontally on a giant scale, and the interlayer spaces in the layered hybrid structure shrink and expand vertically. In particular, our layered hybrid molecular system exhibits a macroscopic morphological change on a giant scale (~1500 nm) compared with the molecular size of ~1 nm, based on a reversible sliding mechanism.


Subject(s)
Models, Anatomic , Models, Biological , Muscles , Nanostructures/chemistry , Aluminum Silicates/chemistry , Azo Compounds/chemistry , Catalysis , Clay , Fluorides/chemistry , Humans , Minerals/chemistry , Photochemical Processes , Polymerization/radiation effects , Polymers/chemical synthesis , Polymers/chemistry , Stereoisomerism
2.
J Am Chem Soc ; 133(43): 17130-3, 2011 Nov 02.
Article in English | MEDLINE | ID: mdl-21978075

ABSTRACT

A novel photoactivated artificial muscle model unit is reported. Here we show that organic/inorganic hybrid nanosheets reversibly slide horizontally on a giant scale and the interlayer spaces in the layered hybrid structure shrink and expand vertically by photoirradiation. The sliding movement of the system on a giant scale is the first example of an artificial muscle model unit having much similarity with that in natural muscle fibrils. In particular, our layered hybrid molecular system exhibits a macroscopic morphological change on a giant scale (~1500 nm) relative to the molecular size of ~1 nm by means of a reversible sliding mechanism.


Subject(s)
Artificial Organs , Muscles , Nanostructures/chemistry , Photochemical Processes/radiation effects , Muscles/radiation effects , Myofibrils/radiation effects , Particle Size , Surface Properties
SELECTION OF CITATIONS
SEARCH DETAIL