Abstract:
A barrier film laminate for a touch-sensing display includes a barrier layer, an optically clear adhesive layer, an optically clear polymer film, and a touch-sensing layer. The optically clear adhesive is disposed on a first surface of the barrier layer, and the optically clear polymer film is disposed on the adhesive layer on a side opposite the glass layer. The touch-sensing layer is disposed on the polymer film on a side opposite the adhesive layer. A method for the manufacture of the barrier film laminates is also described. The barrier film laminates can be particularly useful as a component in a touch-sensing display.
Abstract:
A method of making a multilayer sheet includes: forming a substrate including a substrate first surface and a substrate second surface; applying a conductive layer including a base and a conductive coating to the substrate first surface; and applying an ultraviolet cured coating layer to a surface of the conductive layer opposite that in contact with the substrate second surface, wherein the ultraviolet cured coating layer comprises a multifunctional acrylate oligomer and an acrylate monomer; pressing the substrate, conductive layer, and ultraviolet cured coating layer together to form a stack; heating the stack; activating the ultraviolet cured coating layer with an ultraviolet radiation source; and removing the base from the stack leaving a conductive multilayer sheet; wherein the ultraviolet cured coating layer remains adhered to the conductive layer.
Abstract:
An integrated conductive film can comprise: a first substrate including a first surface and a second surface, wherein the first substrate comprises a first polymer; a second substrate coupled to the second surface of the first substrate, wherein the second substrate comprises a second polymer, and wherein the chemical composition of the first polymer is different from the chemical composition of the second polymer; a transfer resin disposed adjacent to the first surface of the first substrate; a conductive coating disposed adjacent to the transfer resin, and wherein a change in electrical resistance of the integrated conductive film is less than or equal to 1 ohm when the film is bent to a bend radius of less than or equal to 126 millimeters as per ASTM D5023.
Abstract:
A liquid crystal display device (10), comprising: a blue emitting backlight unit (12); a shutter substrate (14) with thin film transistors (34); a first polarizer (28) on the surface (16) facing the blue backlight unit (12); a liquid crystal layer (20) disposed adjacent to an opposite surface (18) of the shutter substrate (14); a second polarizer (30); and a color change layer (22) comprising a polymer and a quantum dot material, wherein the color change layer (22) is disposed on a surface of a color change substrate (24).
Abstract:
An ultraviolet curable transfer coating can comprise: a multifunctional acrylate oligomer; an acrylate monomer; and a photoinitiator; wherein the ultraviolet curable transfer coating includes a total weight, wherein 30% to 80% of the total weight comprises the multifunctional acrylate oligomer, wherein 15% to 65% of the total weight comprises the acrylate monomer, and wherein 3% to 7% of the total weight comprises the photoinitiator.
Abstract:
A method of thermoforming an article from an integrated transparent conductive film, comprising: applying an ultraviolet curable transfer coating to a first surface of a recipient substrate or to a first surface of a donor substrate, wherein the first surface of the donor substrate includes a conductive coating coupled thereto; pressing the first surface of the recipient substrate and the first surface of the donor substrate together to form a stack; heating the stack and activating the ultraviolet curable transfer coating with an ultraviolet radiation source; removing the donor substrate from the stack leaving a transparent conductive layer, wherein the ultraviolet curable transfer coating remains adhered to the first surface of the recipient substrate and to the conductive coating; laser etching an electrical circuit onto a transparent conductive layer second surface to form an integrated transparent conductive film; and thermoforming the integrated transparent conductive film to form the article.
Abstract:
A method of forming an article of manufacture, comprising: forming a mold insert, comprising applying a conductive layer on a donor substrate second surface, wherein the conductive layer includes nanometer sized metal particles arranged in a network; applying an ultraviolet curable coating layer to a recipient substrate first surface; pressing the recipient substrate, the ultraviolet curable coating layer, and the donor substrate together to form a stack; heating the stack and activating the ultraviolet cured coating layer with an ultraviolet radiation source; removing the donor substrate from the stack, wherein the ultraviolet curable coating layer adheres to the recipient substrate first surface and the conductive layer; thermoforming the mold insert; and injection molding a polymeric resin layer around a portion of the recipient substrate second surface.
Abstract:
A method of making a multilayer sheet includes: forming a substrate including a substrate first surface and a substrate second surface; applying a conductive layer including a base and a conductive coating to the substrate first surface; and applying an ultraviolet cured coating layer to a surface of the conductive layer opposite that in contact with the substrate second surface, wherein the ultraviolet cured coating layer comprises a multifunctional acrylate oligomer and an acrylate monomer; pressing the substrate, conductive layer, and ultraviolet cured coating layer together to form a stack; heating the stack; activating the ultraviolet cured coating layer with an ultraviolet radiation source; and removing the base from the stack leaving a conductive multilayer sheet; wherein the ultraviolet cured coating layer remains adhered to the conductive layer.
Abstract:
A replication composition includes at least 45 weight percent (wt) of a polycarbonate; 3 to 55 wt % of a polyester comprising a poly(C1-6 alkylene) terephthalate or a polyester comprising repeating units of Formula I: (I); wherein each T is independently a C5-7 cycloaliphatic group or C6-12aromatic group, and each D is independently a C6-12 aromatic group or C2-12 aliphatic group, provided that at least 50 mole percent of D is a 1,4-cyclohexanedimethyl group or a C2-12 aliphatic group; wherein the polyester has a melt viscosity between 0.01 and 3,000 poise (0.001 and 300 Pa·s) measured at 1500/seconds shear rate, at a temperature of 275° C.; and 0.01 to 4 wt % additives; wherein the weight percentages are based on 100 wt % of the composition.
Abstract:
A method of thermoforming an article from an integrated transparent conductive film includes heating the integrated transparent conductive film to a formable temperature in a mold, wherein the integrated transparent conductive film comprises a substrate comprising a transparent thermoplastic material, wherein the substrate includes a substrate first surface and a substrate second surface; a transparent conductive layer disposed adjacent to the substrate, wherein the transparent conductive layer includes a transparent conductive layer first surfaced disposed on the substrate first surface; and an electrical circuit etched onto a transparent conductive layer second surface; thermoforming the integrated transparent conductive film to the article comprising the mold shape; cooling the formed article; and removing the formed article form the mold; wherein the formed article has a functional electrical circuit after thermoforming.