46results about How to "Lower surface resistance value" patented technology

To provide a material capable of obtaining a transparent conductive film having an excellent conductivity, Optical transmission, Environmental reliability, suitability for process, adhesion and hardness in a single application process, and to provide a transparent conductive film using the same and a device element using the same. A coating forming composition containing at least one kind selected from the group of metal nanowires and metal nanotubes as a first component, a polymer compound having a hydroxyl group as a second component, a compound having a group 13 element or a transition metal element as a third component, and further a solvent is prepared to obtain a transparent conductive film by the coating.

The invention provides a capacitor electrode member in which layers constituting the electrode member are highly adhesive. The capacitor electrode member comprises aluminum material (1), a carbon-containing layer (2) formed on the surface of the aluminum material (1), and further an interposition layer (3) containing an aluminum element and a carbon element, the interposition layer being formed between the aluminum material (1) and the carbon-containing layer (2). The interposition layer (3) constitutes a first surface portion which is formed on at least a part of the region of the surface of the aluminum material (1) and contains a carbide of aluminum. The carbon-containing layer (2) constitutes a second surface portion (21) formed so as to extend outward from the first surface portion (3). The carbon-containing layer (2) further contains carbon particles (22) and the second surface portion (21) is formed between the first surface portion (3) and the carbon particles (22) and contains a carbide of aluminum.

The invention relates to a multifunctional casting polyolefine firmness-increasing film which is formed by compounding a heat sealing layer, a core layer and a corona layer. The corona layer or the heat sealing layer mainly comprises the following components in portions by weight: 100 portions of polyethylene resin, 10-60 portions of compatilizer, 0.1-0.5 portion of anti-blocking agent and 0.1-0.5portion of slipping agent; and the core layer mainly comprises the following components in portions by weight: 100 portions of polypropylene resin and 0.1-1.1 portions of nucleating agent. The multifunctional casting polyolefine firmness-increasing film has the characteristics of low temperature, favorable heat sealing performance, high firmness, high elastic modulus and the like, not only combines the advantages of polyethylene and polypropylene films, but also overcomes the defects of polyethylene or polypropylene composite films, is widely applied for packing facial tissues, foods and other products, and is particularly suitable for quick and automatic package of products.

A niobium doped tin oxide coating is applied onto a glass substrate to produce a low emissivity (low E) glass. The coating can optionally be doped with both niobium and other dopant (s), such as fluorine. The low emissivity glass has properties comparable or superior to conventional low E glass with fluoring doped tin oxide coatings.

To provide a method for forming a transparent conductive pattern that reduces damage to metal nanowires and/or metal nanotubes during screen printing using a transparent conductive ink containing metal nanowires and/or metal nanotubes as a conductive component and thereby makes it possible to form a transparent conductive pattern via a simple production process while minimizing production costs and environmental impact. [Solution] A round squeegee 3 in which a tip section that is brought into contact with a screen mask 2 has a curved surface shape is used to screen print with a transparent conductive ink 5 containing a dispersion medium and at least one of metal nanowires and metal nanotubes.

The present specification provides a conductive structure body and an electronic device comprising the same.

This transparent conductive film is sequentially provided with a first transparent conductive layer, a first optical adjustment layer, a transparent substrate, a second optical adjustment layer and asecond transparent conductive layer. The surface resistivity of the second transparent conductive layer is higher than the surface resistivity of the first transparent conductive layer; the surface resistivity of the first transparent conductive layer is from 10 [Omega]/[] to 70 [Omega]/[] (inclusive); the surface resistivity of the second transparent conductive layer is from 50 [Omega]/[] to 150[Omega]/[] (inclusive); and the refractive index of the second optical adjustment layer is lower than the refractive index of the first optical adjustment layer.