A decorative composite body includes a glass body and a plastic partly enclosing the glass body, wherein part of the surface of the glass body is arranged on the outside of the decorative composite body, wherein at least two adjacent glass and plastic areas arranged on the outside of the composite body are ground in the composite state, wherein areas of the glass body adjacent to the plastic are at least partly mirrored.

Embodiments of an image panel are provided. The image panel includes a transparent substrate having a first major surface and a second major surface opposite the first major surface. A first image layer is disposed on the second major surface. A diffuser layer is disposed on the first image layer, and a second image layer is disposed on the diffuser layer. The second image layer includes mask regions and image regions. An optical density of the image panel is at least 3.0 in the mask regions and less than 3.0 in the image regions. The image regions are not visible from the first major surface when light is not incident upon the second major surface. The image regions are visible from the first major surface and form a composite image with the first image layer when light is incident upon the second major surface.

A decoration glass includes a transparent base made of glass, the transparent base having a decoration surface; a decoration pattern layer adhered to the decoration surface by an adhesive layer, the decoration pattern layer being made of UV curing ink; and a coating layer deposited on the decoration pattern layer. A method to form a decoration glass is also provided.

An abrasion-resistant wood-based panel having a top side and a bottom side, with at least one decorative layer arranged on the top side, in particular with a structure synchronous with the decoration, is disclosed herein.

A floor panel with a substrate and a decoration provided thereon. The substrate includes at least a foamed layer of thermoplastic material and at least a reinforcement layer. Additionally, a method for manufacturing such floor panels with a substrate and a decoration, where the substrate includes at least a foamed layer of thermoplastic material and at least a reinforcement layer.

Embodiments of an image panel are provided. The image panel includes a transparent substrate having a first major surface and a second major surface opposite the first major surface. A first image layer is disposed on the second major surface. A diffuser layer is disposed on the first image layer, and a second image layer is disposed on the diffuser layer. The second image layer includes mask regions and image regions. An optical density of the image panel is at least 3.0 in the mask regions and less than 3.0 in the image regions. The image regions are not visible from the first major surface when light is not incident upon the second major surface. The image regions are visible from the first major surface and form a composite image with the first image layer when light is incident upon the second major surface.

Disclosed are a power-generating building material and a preparation process thereof. The power-generating building material applies the artistic appreciation and protection performance of an optical adjustment layer to the field of solar cells, so that the architectural art and power-generating performance are integrated to meet the requirements for green buildings and environmentally friendly buildings. The outer surface formed by a surface layer after curing is beautiful in texture. The power-generating building material has the texture and quality of a building material, is rich and diverse in expression form, without changing the architectural style and urban landscape, and has a broad application prospect.

A floor panel with a substrate and a decoration provided thereon. The substrate includes at least a foamed layer of thermoplastic material and at least a reinforcement layer. Additionally, a method for manufacturing such floor panels with a substrate and a decoration, where the substrate includes at least a foamed layer of thermoplastic material and at least a reinforcement layer.

The invention relates to a method for producing a decorative element DE and uses of a decorative element DE produced in this way.

A polarizing layer PS which functions as an analyzer is applied to a transparent optical carrier material TM and a transparent optical functional layer FS is applied to the other side as an image-forming layer BS which consists of an optically anisotropic material OAM.

By spatially structuring the functional layer FS in an image-forming manner, a targeted location-dependent dependency of material properties of the optically anisotropic material OAM is created for producing the image-forming layer BS in the form of an image motif BM.

One or several decorative elements DE produced according to the invention can each be introduced into a light field of a lighting device BV in a desired shape, size and quantity and having settable image motifs BM (image structures) and being disposed at different spatial distances and being freely disposable.

Furthermore, in terms of a device, the decorative element produced according to the invention 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.