Complex material

Abstract

An object of the present invention is to provide a complex material in which an ion conduction film is curved and deformed when a potential difference is applied, which is operated at small electric power, has a large deformation amount, quick response performances, large degree of freedom in shape, and is easy in control of deformation, while having strength and durability necessary for practical use and being excellent in an economical aspect. A conductive cloth (preferably having stretchability), which is made conductive through plating of metal on a cloth or metal complex implantation, is joined as an electrode to both surfaces of the ion conduction film (the film in which an ion exchange film or ion liquid is immersed) made of a fluororesin and the like. When the potential difference is applied, the ion conduction film is deformed.

Description

BRIEF DESCRIPTION OF THE DRAWINGS

In the accompanying drawings:

FIG. 1 is a side sectional view of a state where a potential difference is not applied, in an embodiment of a complex material of the present invention;

FIG. 2 is a side sectional view of a state where the potential difference is applied, in the embodiment of the complex material of the present invention; and

FIG. 3 is a schematic view showing an example of a manufacturing method of a complex material of the present invention.

Claims

1. A complex material comprising: an ion conduction film; andelectrodes joined to both surfaces of the ion conduction film, wherein:said ion conduction film is caused to generate a deformation by applying a potential difference between said electrodes, andeach of said electrodes is formed of a conductive cloth.

2. The complex material according to claim 1, in which said ion conduction film is an ion exchange film or a film immersed with ion liquid.

3. The complex material according to claim 2, in which said ion exchange film or said film immersed with the ion liquid is formed of a fluororesin-based polymer.

4. The complex material according to claim 1, in which said conductive cloth is a composite of cloth and metal obtained by plating or a metal complex implantation.

5. The complex material according to claim 1, in which at least one of said electrodes joined to the surfaces of the ion conduction film is formed of the conductive cloth having stretchability.

6. The complex material according to claim 1, in which said conductive cloth has a difference in stretchability between orthogonal two axes.

7. The complex material according to claim 6, in which said difference in stretchability is 2% or more.

8. The complex material according to claim 5, in which said conductive cloth is joined to the ion conduction film so that, when the potential difference is applied between the electrodes, the conductive cloth has stretchability in a direction in which the ion conduction film is deformed.

9. The complex material according to claim 6, in which said conductive cloth is joined to the ion conduction film so that, when the potential difference is applied between the electrodes, the conductive cloth has stretchability in a direction in which the ion conduction film is deformed.

10. The complex material according to claim 7, in which said conductive cloth is joined to the ion conduction film so that, when the potential difference is applied between the electrodes, the conductive cloth has stretchability in a direction in which the ion conduction film is deformed.