The present invention discloses a colorful board structure comprising a transparent substrate, an adhesive layer, a three-dimensional painted layer and a protective layer. The three-dimensional painted layer includes at least one colored layer and at least one transparent stacking layer including at least one raised part. The aforementioned colorful board structure is made of a multi-layer structure, and has the advantages of enhancing the stereoscopic effect of the pattern and the color expression. In addition, a manufacturing method of the colorful board structure is also disclosed.

Reinforced panels include a layer of glass joined to a substrate to support the glass. Connectors are joined to the side of the substrate opposite the glass to enable the reinforced panel to be configured with and/or attached to a modular wall system. The glass can be backpainted prior to joining to the substrate, and/or a film can be included in the reinforced tile disposed between the glass panel and the substrate. A reinforced panel includes a conductive material disposed between a glass layer and a substrate to form a touch-responsive section. One or more intermediate layers disposed between the glass layer and the substrate are included. The one or more intermediate layers have sufficient elastic deformability so as to enable the reinforced panel to tolerate differences in thermal expansion between the substrate and the glass layer without resulting in cracking of the glass layer.

An apparatus includes: an MDF portion including an upper surface, a lower surface, and a lateral surface between the upper and lower surfaces; a stress buffer including an upper surface and a lower surface; a glass portion including an upper surface and a lower surface; and a moisture-inhibiting portion that limits a flow of moisture into and out of the MDF portion through at least one of the lower surface or the lateral surface of the MDF portion.

The present disclosure relates to a thin glass layer-laminated printed steel sheet having a clearly visible pattern printed on a printed steel sheet and has excellent flame retardancy, and a method for manufacturing the same. Specifically, the present disclosure provides a thin glass layer-laminated printed steel sheet comprising: a printed steel sheet comprising a metal sheet and a printed layer on which a design or pattern having a resolution of 300 dpi or higher is printed, the printed layer being formed on a surface of the metal sheet; a transparent ultraviolet-curable adhesive layer comprising a flame retardant material and having a thickness of 10 to 100 μm, the adhesive layer being formed on the printed steel sheet; and thin glass layer attached by the adhesive layer, and a method for manufacturing the same.

The present invention discloses a colorful board structure comprising a transparent substrate, an adhesive layer, a three-dimensional painted layer and a protective layer. The three-dimensional painted layer includes at least one colored layer and at least one transparent stacking layer including at least one raised part. The aforementioned colorful board structure is made of a multi-layer structure, and has the advantages of enhancing the stereoscopic effect of the pattern and the color expression. In addition, a manufacturing method of the colorful board structure is also disclosed.

It is provided a method for producing a support material provided with at least one anti-fingerprint coating including the steps of: applying at least one layer of at least one powdered resin to at least one side of the support material; melting on the at least one applied layer of the one powdered resin; applying at least one acrylate-containing dispersion to the melted-on resin layer; and drying and curing the layered structure.

Disclosed are a glass embedded product and a method for fabricating same. The glass embedded product comprises a base, the base having a cavity, several hollowed holes being formed through a side wall of the cavity, and the hollowed holes communicate with the cavity. The glass embedded product further comprises a glass blown decorative structure embedded in the base, the glass blown decorative structure comprising a glass blown lining sheathed in the cavity of the base and glass protruding decorative parts embedded in the hollowed holes of the base. The glass protruding decorative parts and the glass blown lining form an integrated blow-moulded integral structure.

A method for producing a decorative element and uses of a decorative element. A polarizing layer functioning as an analyzer is applied to a transparent optical carrier material and a transparent optical functional layer is applied as an image-forming layer including an optically anisotropic material. By spatially structuring the functional layer, a targeted location-dependent dependency of material properties of the optically anisotropic material is created for producing the image-forming layer. One or several decorative elements produced can each be introduced into a light field of a lighting device in a desired shape, size and quantity and having settable image motifs (image structures) and being disposed at different spatial distances and being freely disposable. The decorative element produced is intended to be used as an architectural element for creating light-optical effects in the exterior area of buildings, as a design element for interior design or for object design.

Disclosed is an electronic device that includes a first plate that forms a first surface of the electronic device through which contents are output, a second plate that forms a second surface facing away from the first surface, and a side member that surrounds a space between the first plate and the second plate. The second plate includes a UV curable resin layer including a fine pattern that implements an interference effect and a prism effect of light and a metal nanoparticle layer printed on the fine pattern so as to have a specific orientation. Besides, it may be permissible to prepare various other embodiments speculated through the specification.

Provided is method for producing a support material provided with at least one anti-fingerprint coating including the steps of applying at least one layer of at least one powdered resin to at least one side of the support material; melting on the at least one applied layer of the one powdered resin; applying at least one acrylate-containing dispersion to the melted-on resin layer; and drying and curing the layered structure.