Abstract:
A layer stack (100; 200) for a touch panel is described. The layer stack includes a substrate (110; 210) including a polymer for depositing one or more layers on the substrate; a patterned transparent conductive oxide (TCO) layer (160; 260) provided over the substrate (110; 210), which comprises areas of TCO and gaps between the areas of TCO; a first dielectric material (170; 270) provided in the gaps of the patterned TCO layer (160; 260); and a dielectric layer (180; 280) being deposited directly on the TCO areas of the TCO layer (160; 260) and directly on the first dielectric material (170; 270). Further, a touch panel including a layer stack and a method for forming a layer stack for a touch panel is described.
Abstract:
This disclosure relates generally to devices, systems, and methods for making a flexible microelectronic assembly. In an example, a polymer is molded over a microelectronic component, the polymer mold assuming a substantially rigid state following the molding. A routing layer is formed with respect to the microelectronic component and the polymer mold, the routing layer including traces electrically coupled to the microelectronic component. An input is applied to the polymer mold, the polymer mold transitioning from the substantially rigid state to a substantially flexible state upon application of the input.
Abstract:
The application provides a printed circuit board and an optical module so as to alleviate poor contact between the electro-conductive contact sheet group and the clamping piece due to the solder resist. The printed circuit board includes a substrate, and electro-conductive wirings and electro-conductive contact sheet group both laid on the surface of the substrate, where the substrate is overlaid with solder resist, and the solder resist has no contact with the electro-conductive contact sheet group.
Abstract:
A method of fabricating a composite conductive film is provided. The method includes providing, as a matrix, a layer of cross-linkable polymer, where the cross-linkable polymer is in a non-cross-linked state. The method further includes introducing inorganic nanowires upon a surface of the layer of cross-linkable polymer. The inorganic nanowires are, in isolated form, characterized by a first conductivity stability temperature. The method further includes embedding at least some of the inorganic nanowires into the layer of cross-linkable polymer to form an inorganic mesh, thereby forming the composite conductive film. The method further includes cross-linking the polymer within a surface portion of the composite conductive film. Cross-linking the polymer within the surface portion of the composite conductive film results in the surface portion having a second conductivity stability temperature that is greater than the first conductivity stability temperature.
Abstract:
A layer stack for a touch panel is described. The layer stack includes a substrate including a polymer for depositing one or more layers on the substrate; a patterned transparent conductive oxide (TCO) layer provided over the substrate, which comprises areas of TCO and gaps between the areas of TCO; a first dielectric material provided in the gaps of the patterned TCO layer and a dielectric layer being deposited directly on the TCO areas of the TCO layer and directly on the first dielectric material. Further, a touch panel including a layer stack and a method for forming a layer stack for a touch panel is described.
Abstract:
Disclosed herein are a method of forming an amorphous alloy film and a printed wiring board manufactured by the same. The amorphous alloy film may be formed on a copper foil as one of rust-proofing treatment methods of the copper foil to thereby simultaneously show and improve corrosion-resistance and conductivity, and the amorphous alloy film may be formed by the sputtering deposition method, such that high melting point materials may be manufactured as a thin film at a relatively low temperature and the amorphous alloy film having strong adhesion strength with a substrate may be obtained.
Abstract:
An active chip package substrate and a method for preparing the same. The active chip package substrate includes: a core board; at least one upper active chip, embedded in the core board and having an active surface facing toward a lower surface of the core board, the upper active chip being an active bare chip; and at least one lower active chip, embedded in the core board and having an active surface facing toward an upper surface of the core board, the lower active chip being an active bare chip.
Abstract:
Different kinds of printing pastes or inks are utilized in various combinations to develop multiple ceramic dielectric layers on graphitic substrates in order to create effective dielectric ceramic layers that combine good adhesion to both graphitic substrates and printed copper traces, and strong insulating capability. The pastes or inks may comprise a high thermal conductivity powder.