Abstract:
There are provided a pattern exposure method, a conductive film producing method, and a conductive film, wherein a photosensitive material is subjected to a proximity exposure through a photomask disposed with a proximity gap of 70 to 200 μm, and thereby is exposed in the mask pattern periodically in the conveying direction to obtain a conductive film. The conductive film has a plurality of conductive portions of first and second conductive thin metal wires and a plurality of opening portions. A side of each thin metal wire has a protrusion extending toward the opening portion from a virtual line representing a designed width of the thin metal wire, and the protruding amount of the protrusion is 1/25 to ⅙ of the designed width.
Abstract:
A transparent conductive film includes a substrate, a transparent conductive layer, a lead electrode, and a first connecting wire, the substrate includes a first region and a second region located on the edge of the substrate; the transparent conductive layer is embedded in the first region, the lead electrode is formed on the second region; first connecting wire is formed on the substrate and located between the transparent conductive layer and the lead electrode, thereby the conductive material of the first conductive mesh and that of second conductive mesh are electrically connected; the first connecting is arranged between the transparent conductive layer and the lead electrode for electrically connecting the transparent conductive layer and the lead electrode, which can enhance the electrical connection strength between the transparent conductive layer and the lead electrode, such that the conductivity of the conductive film is great, and the yield is improved.
Abstract:
Method of manufacturing patterned conductor is provided, comprising: providing a conductivised substrate, wherein the conductivised substrate comprises a substrate and an electrically conductive layer; providing an electrically conductive layer etchant; providing a spinning material; providing a masking fiber solvent; forming a plurality of masking fibers and depositing the plurality of masking fibers onto the electrically conductive layer; exposing the electrically conductive layer to the electrically conductive layer etchant, wherein the electrically conductive layer that is uncovered by the plurality of masking fibers is removed from the substrate, leaving an interconnected conductive network on the substrate covered by the plurality of masking fibers; and, exposing the plurality of masking fibers to the masking fiber solvent, wherein the plurality of masking fibers are removed to uncover the interconnected conductive network on the substrate.
Abstract:
A method for processing a transparent substrate includes generating at least one laser pulse having laser parameters selected for non-ablatively changing a conductive layer disposed on the transparent substrate into a non-conductive feature, and directing the pulse to said conductive layer. A protective film may be affixed to a surface of the transparent substrate and need not be removed during the processing of the substrate. After processing, processed areas can be visually indistinguishable from unprocessed areas.
Abstract:
A transparent conductive film includes a substrate defining a mesh-shaped groove, which forms a mesh; and a conductive layer formed by conductive material filled in the mesh. An edge line of the mesh-shaped grooves is a curve or a polyline which increases a contact area between the conductive material and an edge of the mesh-shaped groove. In the transparent conductive film, non-linear edge lines are used, therefore, for the conductive region with the same size, the area of edge of the conductive material in contact with the trench increases, and the friction is increased, which leads to a larger adhesion of the conductive material, and a stable performance of the transparent conductive film is guaranteed.
Abstract:
The present invention discloses an electric device, which comprises at least one transparent/semi-transparent substrate; a plurality of electric conduction elements arranged on at least one of two opposite surfaces and a lateral surface of the transparent/semi-transparent substrate; and at least one module arranged on the transparent/semi-transparent substrate and electrically connected with the electric connection units. The present invention also discloses an electric device, which comprises a plurality of transparent/semi-transparent substrates; a plurality of electric conduction elements selectively arranged on the transparent/semi-transparent substrates; and a plurality of modules arranged on outer surfaces of the transparent/semi-transparent substrates or interposed between the transparent/semi-transparent substrates, and electrically connected with the electric conduction elements. The electric device has electric functions and features transparency esthetics.
Abstract:
An electrical conductor includes a substrate having micro-channels formed in the substrate. A plurality of spaced-apart first micro-wires is located on or in the micro-channels, the first micro-wires extending across the substrate in a first direction. A plurality of spaced-apart second micro-wires is located on or in the micro-channels, the second micro-wires extending across the substrate in a second direction different from the first direction. Each second micro-wire is electrically connected to at least two first micro-wires and at least one of the second micro-wires has a width less than the width of at least one of the first micro-wires.
Abstract:
Electrode substrate for an optoelectronic device having a fabric (10) that includes electrically conductive (14; 56) as well as non-conductive (12; 50) and transparent fibres wherein the fabric is furnished over a wide area with a transparent, electrically conductive coating (26, 28, 58) in such manner that projecting or exposed portions of the electrically conductive fibres cooperate with the conductive coating in order to produce electrical contacts, wherein the conductive coating has a layer thickness that is smaller than a mean diameter of the electrically conductive and electrically non-conductive fibres of the fabric, a fabric weave of the electrically conductive fibres of the fabric is organized in such a manner that in order to create the protruding portions, the fibres encompass at least 2 of the non-conductive fibres that extend transversely in the manner of a twill weave, the fabric is embedded in the coating in such manner that portions (20; 22; 56) of the conductive fibres protrude from a non-conducting polymer material of the coating and/or are exposed, at least on one side of the coating, and the coating is applied to a polymeric, electrically non-conductive and transparent carrier film that is situated opposite the conductive coating that is applied to one side relative to the fabric.
Abstract:
Methods and compositions are disclosed and claimed for gravure printing of transparent conductive films comprising metal nanowires. Such films exhibiting low resistivity and superior coating uniformity may be used in electronic or optical articles.
Abstract:
A printed circuit board includes a transparent base layer, a conductive trace layer, and a transparent cover layer. The conductive trace layer is formed on a first surface of the base layer, and includes two conductive pads and a grid-shaped conductive trace pattern. the grid-shaped conductive trace pattern includes a plurality of conductive traces, the conductive traces form a plurality of strips connected one by one, each strip includes a plurality of triangles arranged in a line, each two adjacent triangles in a same strip have a same side, each two adjacent triangles in different strips have a same side, two distal ends of each strip are connected to the two conductive pads respectively. The transparent cover layer s the grid-shaped conductive trace pattern and parts of the first surface without forming the conductive trace layer.