1518results about "Apparatus for manufacturing conducting/semi-conducting layers" patented technology

We report a method of preparation of highly elastic graphene oxide films, and their transformation into graphene oxide fibers and electrically conductive graphene fibers by spinning. Methods typically include: 1) oxidation of graphite to graphene oxide, 2) preparation of graphene oxide slurry with high solid contents and residues of sulfuric acid impurities. 3) preparation of large area films by bar-coating or dropcasting the graphene oxide dispersion and drying at low temperature. 4) spinning the graphene oxide film into a fiber, and 5) thermal or chemical reduction of the graphene oxide fiber into an electrically conductive graphene fiber. The resulting films and fiber have excellent mechanical properties, improved morphology as compared with current graphene oxide fibers, high electrical conductivity upon thermal reduction, and improved field emission properties.

Polymer binders, e.g., crosslinked polymer binders, have been found to be an effective film component in creating high quality transparent electrically conductive coatings or films comprising metal nanostructured networks. The metal nanowire films can be effectively patterned and the patterning can be performed with a high degree of optical similarity between the distinct patterned regions. Metal nanostructured networks are formed through the fusing of the metal nanowires to form conductive networks. Methods for patterning include, for example, using crosslinking radiation to pattern crosslinking of the polymer binder. The application of a fusing solution to the patterned film can result in low resistance areas and electrically resistive areas. After fusing the network can provide desirable low sheet resistances while maintaining good optical transparency and low haze. A polymer overcoat can further stabilize conductive films and provide desirable optical effects. The patterned films can be useful in devices, such as touch sensors.

Described herein are polymer formulations for facilitating electrical stimulation of nasal or sinus tissue. The polymer formulations may be hydrogels that are prepared by a UV cross-linking process. The hydrogels may be included as a component of nasal stimulator devices that electrically stimulate the lacrimal gland to improve tear production and treat dry eye. Additionally, devices and methods for manufacturing the nasal stimulators, including shaping of the hydrogel, are described herein.

The invention relates to a twisted line which comprises a plurality of carbon nano tubes that are connected with each other end to end by van der waals force, wherein the twisted line further comprises conducting materials covering on the surfaces of the carbon nano tubes.

Disclosed are methods for making conductive materials. The methods can be used to make transparent, opaque, or reflective electrodes by using the same materials and equipment but varying the processing conditions or amounts of materials used. The methods can include: (a) providing a substrate comprising a first surface and an opposite second surface, wherein micro- or nanostructures are disposed on at least a portion of the first surface, and wherein the first surface is not pre-conditioned to increase attachment between the micro- or nanostructures and the substrate; (b) applying heat to heat the substrate surface to a temperature that is greater than the glass transition temperature or the Vicat softening temperature of the substrate and less than the melting point of the substrate; (c) applying pressure such that the substrate and the micro- or nanostructures are pressed together; and (d) removing the pressure to obtain the conductive material.

The invention belongs to the technical field of photo-electronics, and more specifically relates to a low-roughness and low-square-resistance flexible transparent conductive composite thin film, wherein the thin film adopts a three-layer composite structure; the lowest bottom layer is provided with a transparent polymer thin film; the middle layer is provided with a conductive network formed by metal nanowires; the topmost layer is a provided with a transparent conductive layer which uniformly covers the transparent polymer thin film and the conductive network; the flexible transparent conductive composite thin film is less than 20-nanometer in average roughness, less than 30-ohm/square meter in square resistance, and greater than 80% of light transmittance within a visible light range; and the transparent conductive thin film can bear bending with radius of curvature of 2mm. The invention also discloses a preparation method for the flexible transparent conductive composite thin film. The flexible transparent conductive composite thin film provided by the invention has low roughness, high conductivity, high light transmittance, simple preparation method and low cost, and is particularly suitable for flexible display and illumination, a flexible solar battery and flexible touch equipment.

A method for making one or more nanostructures is disclosed, the method comprising: depositing a conducting layer on an upper surface of a substrate; depositing a patterned layer of catalyst on the conducting layer; growing the one or more nanostructures on the layer of catalyst; and selectively removing the conducting layer between and around the one or more nanostructures. A device is also disclosed, comprising a substrate, wherein the substrate comprises one or more exposed metal islands separated by one or more insulating areas; a conducting helplayer disposed on the substrate covering at least some of the one or more exposed metal islands or insulating areas; a catalyst layer disposed on the conducting helplayer; and one or more nanostructures disposed on the catalyst layer.

The present invention relates to a method of manufacturing a transparent conductive layer and a transparent conductive layer manufactured by the method. The method of manufacturing the transparent conductive layer includes: a) a step of forming a conductive nanowire layer on a base material; b) a step of thermally treating the conductive nanowire layer; c) a step of applying a conductive metal ink on the conductive nanowire layer; and d) a step of thermally treating the base material coated with the conductive metal ink to electrically bridge the conductive nanowires with each other by conductive metal particles of the conductive metal ink.

Method and apparatus for direct writing of passive structures having a tolerance of 5% or less in one or more physical, electrical, chemical, or optical properties. The present apparatus is capable of extended deposition times. The apparatus may be configured for unassisted operation and uses sensors and feedback loops to detect physical characteristics of the system to identify and maintain optimum process parameters.

A composition comprising a plurality of coated metal particles with a metal core surrounded by nested shells formed by an electrically conductive layer and by a barrier layer, at least one of the shells being formed by electroless plating. The invention also comprises a method of producing such compositions as well as the use of the composition in, for example, crystalline-silicon solar cell devices having contact structures formed on one or more surfaces of a solar cell device, such as those used in back contact solar cell devices or emitter wrap through (EWT) solar cell devices.

The present invention provides a method for transferring a silver nanowire transparent conductive film to a flexible substrate. The method comprises the following steps: (1) performing spin coating of silver nanowire dispersion liquid on a cleaning substrate, obtaining a silver nanowire film, putting the silver nanowire film on a heating plate of 120 DEG C for drying, and performing heat treatment of the silver nanowire film in an oven of 220 DEG C; (2) performing spin coating of silicon dioxide aerogel dispersion liquid on the silver nanowire film, making a silver nanowire/silicon dioxide aerogel composite conductive film, and performing drying of the silver nanowire/silicon dioxide aerogel composite conductive film on the heating plate of 120 DEG C; (3) coating uniformly mixed PDMS to the surface of the composite conductive film to perform heating curing, and making an AgNWs-silicon dioxide aerogel-PDMS composite flexible transparent electrode; and (4) directing peeling off the cured PDMS from a glass substrate, and completing the transferring of the silver nanowire transparent conductive film. The method for transferring the silver nanowire transparent conductive film to the flexible substrate realizes the complete transferring of the silver nanowire transparent electrode to effectively reduce the node resistance between nanowires, reduce the surface roughness of a network, make a silver nanowire flexible transparent conductive film with good performances and have an actual application value.

A shielded cable component and method that comprises a human body that has an outer surface and the main body is formed of a dielectric material and a coating that is applied to the outer surface of the main body where the coating includes a conductive or semi-conductive shielding material. An outer layer is disposed on the coating that completely encapsulates the coating and the main body and the outer layer is formed of a dielectric material.

The invention discloses a method for preparing a high-performance metallic network transparent conducting electrode through a metal plating method. The method includes the following steps: (1) a fracturing sacrificial layer template is prepared on a substrate; (2) a metallic conducting seed layer is deposited on the fracturing sacrificial layer template; (3) the fracturing sacrificial layer is removed to form a metallic conducting seed layer network; and (4) metal is continuously deposited on the metallic conducting seed layer through the metal plating method, a continuous metal network with the larger thickness and the lower resistance is formed, and therefore the high-performance metallic network transparent conducting electrode is prepared. The transparent conducting electrode is mainly obtained through the metal plating method, the metal plating method belongs to a chemical liquid phase method, the preparing process is simple, resource consumption is low, and the high-performance metallic network transparent conducting electrode is suitable for large-area continuous preparation. The prepared transparent conducting electrode has the extremely-low surface resistance and the better light transmittance; meanwhile, the mechanical property and the environmental stability are good, the transparent conducting electrode is a beneficial replacer of a traditional metallic oxide electrode, and it is expected that the method is used for industrialization of the large-area transparent conducting electrode.

A method of manufacturing a polymer electrode and a polymer actuator employing the polymer electrode, the method including: adhering a shadow mask onto a substrate, forming a hydrophilic electrode pattern on the substrate, coating the hydrophilic electrode pattern of the substrate with a conductive polymer water solution, removing the shadow mask, and drying the conductive polymer water solution, thus forming the polymer electrode. The method may be applied to electrodes disposed on both surfaces of a polymer deformation layer of a polymer actuator.

The invention relates to a method for preparing a twisted line, comprising the steps as follows: a carbon nano tube structure is provided; a conducting material is formed and attached on the surface of the carbon nano tube structure; and the carbon nano tube structure is twisted to form the twisted line.

The invention discloses a liquid metal-based stretchable flexible functional conductor and a preparation method thereof. The method comprises the following steps: (1) a polymer solution and a liquid metal are blended uniformly to obtain a conductive composite material; (2) the conductive composite material is loaded on a flexible carrier to obtain the liquid metal-based stretchable flexible functional conductor. The liquid metal-based stretchable flexible functional conductor is non-toxic and safe, and has a tensile deformation-resistance reduction effect in the stretching process, the resistance decreases as strain increases, and the stretchable flexible functional conductor has important application prospects in the field of force conductive materials.

The invention relates to a use of a polymer composition with improved DC electrical properties in a power cable layer and to a cable surrounded by at least one layer comprising the polymer composition.

This invention provides a film with a transparent electroconductive membrane, which can provide a display having a good surface flatness and possessing a high luminescence brightness, and a substrate for a display, a display, a liquid crystal display device, and an organic EL element using the film with a transparent electroconductive membrane. More specifically, this invention provides a film with a transparent electroconductive membrane, comprising a transparent base material and a transparent electroconductive membrane, the transparent electroconductive membrane having on its surface crystalline secondary particles having an average particle diameter of 0.1 to 1 μm in an amount of 1 to 100 particles/μm², and a substrate for a display, a display, a liquid crystal display device, and an organic EL element using the film with a transparent electroconductive membrane.

A flexible flat cable and a manufacturing method thereof are provided. The flexible flat cable includes a plurality of ground parts comprising a conductive material disposed at intervals, a plurality of signal transmission parts comprising a conductive material disposed between the plurality of ground parts, an outer skin covering the signal transmission parts and the ground parts, and a conductive adhesive layer disposed between the ground parts and the signal transmission parts and the outer skin part, the signal transmission part comprising an insulating member and a strip line disposed within the insulating member and the ground part comprising a ground member having the same cross section as the strip line and a conductive adhesive block coupled to the ground member with the conductive adhesive layer.