43results about How to "Fully conductive" patented technology

A method for manufacturing a transparent conductive film, said method comprising: forming a compound layer containing a silazane compound on a substrate; supplying energy to the compound layer and thus converting at least a part of the silazane compound into a compound having a siloxane bond to thereby modify the compound layer; and then forming a metal layer, that is configured from silver or an alloy comprising silver as the main component, on the unmodified compound layer or the modified compound layer.

Provided is a collector having a PTC layer having leeway for thermal expansion during an increase in temperature while ensuring sufficient electroconductivity at regular temperatures. According to the present invention, there is provided a collector comprising an electroconductive substrate and a resin layer provided to at least one surface of the electroconductive substrate. The resin layer includes an organic resin and electroconductive particles. The amount of resin layer adhering on the electroconductive substrate is 0.5 to 20 g / m2. The Rz (ten-point average roughness) of the surface of the resin layer is 0.4 to 10 mum. The Sm (average interval between concavities and convexities) of the surface of the resin layer is 5 to 200 mum. The average of the resistance of the resin layer, measured by the two-terminal method, is 0.5 to 50 Omega.

A resonator for an angular parameter sensor, the resonator comprising a bell of electrically-insulating material provided with a central stem and an electrically-conductive layer, the conductive layer comprising branches extending from a central portion of the bell to a peripheral edge of the bell, the number of said branches being a prime number not less than seven.

One purpose of this invention is to provide a porous electrode substrate that has a low manufacturing cost, has sufficient conductivity and gas diffusion characteristics, and shows favorable power generation ability with minor structural changes in the porous electrode substrate, as well as a method for manufacturing such a porous electrode substrate. An additional purpose of this invention is to provide a membrane-electrode joint and a solid polymer fuel cell that comprise such a porous electrode substrate. This invention is: a method for manufacturing a porous electrode substrate that comprises a step (1) in which a dispersion fluid comprising a carbon powder (C) and a fluorine-based resin is applied to one or both surfaces of a precursor sheet wherein carbon short fibers (A1) are dispersed in planar orientations with the fiber orientations being substantially within the same plane, and as a result the fluorine-based resin that contains the carbon powder (C) in the vicinity of the surface layer of one side or both sides of the precursor sheet is distributed unevenly to form a precursor sheet with unevenly-distributed fluorine-based resin, and a step (2) in which after the aforementioned step (1) the precursor sheet with unevenly-distributed fluorine-based resin is heat-treated at a temperature 150 DEG C or higher and less than 400 DEG C; a porous electrode substrate manufactured using this manufacturing method; and a solid polymer fuel cell that uses this porous electrode substrate.

A conductive member composed of a conductive resin transmits a signal by being conductively connected with a body to be connected. The conductive resin includes fiber nanocarbon in the resin.

The invention discloses an organic electroluminescent device and a display. The organic electroluminescent device comprises an anode and a cathode made of inorganic conducting material, an organic emission functional layer interposed between the anode and the cathode and containing an organic emissive layer, and an organic electrode film in contact with an outer side of at least one of the anode and the cathode, wherein the organic electrode film is formed by using at least one of (I) a combination of a polycyclic aromatic hydrocarbon compound having a backbone of 3- to 7-membered rings, and a benzoimidazole derivative having a substituent in the benzene ring, and (II) an azatriphenylene derivative. The invention can form the organic electrode film by depositing quicker than evaporating polymer so as to promote the production efficiency and drive the organic electroluminescent device with the organic electrode film under a low voltage, therefore promoting the luminous efficiency of the organic electroluminescent device and promoting the display property of the display using the same.

Disclosed are columnar zinc oxide particles which are capable of providing a resin with sufficient thermal conductivity or electrical conductivity without being broken or deformed when blended and kneaded into the resin. Specifically disclosed are zinc oxide particles which are characterized by being represented by formula (1) and having a columnar particle content of not less than 80%. (In formula (1), Mn+ represents a trivalent or tetravalent metal; and x and a respectively satisfy the following formulae: 0.002 < x < 0.05 and 0 = a < 0.5.)

An air bubble electrostatic-spinning device comprises a liquid storage tank, a receiving plate, an air bubble generating device, a lifting line connected with the air bubble generating device, an air blowing device, a blowing device and a direct-current high-voltage power supply connected with a lifting line and the receiving plate. An air blowing port formed in the front end of the air blowing device of the air bubble generating device ensures that a high polymer film on meshes of the air bubble generating device form air bubble protrusions, and air flows produced by the blowing device carry away high polymer liquid drops attached to the air bubble generating device, so that fiber morphology on the receiving plate is more uniform. The air bubble electrostatic-spinning device is simple in structure, convenient to operate, simple in control and short in technological process.

The invention discloses an automatic power transmission device, structurally comprising a bottom plate, a grounding ball, a connecting sleeve and fixing bolts, wherein the bottom plate has a square structure, fixing bolts are movably installed on four corners of the bottom plate, the grounding ball is arranged at the middle of the surface of the bottom plate, the connecting sleeve is installed atthe middle of the top of the grounding ball, an earth lead electrically connected with a tower pole is connected with the grounding ball after passing through the connecting sleeve, the grounding ballis buried in the soil, and the grounding ball is composed of an insertion rod, a wring port, a hemispherical shell, an installation tin seat, a lead and a hollow cavity. According to the automatic power transmission device disclosed by the invention, the contact area between the grounding ball and the soil is increased mainly by the cooperation of the grounding ball, the connecting sleeve and thelike, thereby ensuring full contact between the grounding ball and the soil and protecting the installation tin seat, the electric conduction is not affected even if the soil is frozen, a pressure can also be applied to a cylinder to deform the cylinder, the connection position between the connecting sleeve and the grounding ball is also easy to be loosened, thereby being convenient to maintain,and meanwhile the sharp corner of a V-shaped iron wire and the grounding wire rub against each other to remove the ice covering the surface.

The present invention provides a conductive paste capable of forming a fine conductive pattern with sufficient conductivity and good adhesion to a substrate and a method for forming a conductive pattern, and more specifically, provides a method that can be printed using gravure offset A conductive paste for forming a conductive pattern with a line width of 5 μm or less and a method for forming a conductive pattern. The conductive paste includes silver microparticles and an organic solvent, and the organic solvent includes a low-swellability organic solvent with a rubber sheet swelling rate of 2.0% or less, and the content of the low-swellability organic solvent is 3.0 wt% to 3.0% by weight. 30 wt%.

The present invention provides a kind of extremely thin small flaky silver powder. When it is used as a conductive filler, it can coat the conductive material thinly and evenly. The particle size is 3-8 μm, and the average thickness is 20-40 nm. In addition, the above-mentioned small flake silver powder material is extended to an average thickness of The manufacturing method of the process of 20-40 nm provides the above-mentioned ultrathin and small flaky silver powder.