An insert device for receiving an artistic medium thereon for use with a lampshade. The device may include an insert configured to be used in association with a lampshade. The insert may include a first side and a second side. A design may be located on the first side of the insert, where the insert with the design is configured to be drawn on using an artistic implement. The insert may be made from a translucent material that is capable of receiving and retaining an artistic medium thereon. The artistic medium can be erased or otherwise removed from the translucent material. The design on the insert may be used in association with a lampshade such that it is exposed for viewing in association with the lampshade when the insert is in a three-dimensional shape.

The present invention discloses a novel three-dimensional modeling lamp and a manufacturing method thereof. The lamp comprises a lamp shell and a light source arranged in the lamp shell, wherein the lamp shell forms a preset three-dimensional modeling by connecting a plurality of sheets with different shapes through connectors, and the sheets comprise a light-transmitting PET layer and a colorful film layer, the colorful film layer refracts light emitted by the light source, so that the lighting effect of the three-dimensional modeling lamp is better; and a plurality of indentations are formed on the sheets, and the indentations guide users to splice and shape the sheets more conveniently. The manufacturing method comprises the following steps: selecting corresponding sheets according to the preset size and external shape of the three-dimensional modeling lamp, and carrying out indentation treatment on the sheets to facilitate the installation of users.

The lamp shade is formed by a hollow enveloping body with laminar structure closed on itself. In an operative position it is assembled on a support structure and extends laterally around a light source, configuring an upper opening and a lower opening. The enveloping body comprises an exterior face and an interior face relatively rigid in the vertical direction and relatively flexible in the horizontal direction, the vertical direction being that which goes from the upper opening to the lower opening. The interior face comprises at least one corrugated surface portion vertically and at least one perimeter channel (6) perpendicular to the corrugations of the at least one portion for coupling the shade to the support structure.

The lamp shade is formed by a hollow enveloping body with laminar structure closed on itself. In an operative position it is assembled on a support structure and extends laterally around a light source, configuring an upper opening and a lower opening. The enveloping body comprises an exterior face and an interior face relatively rigid in the vertical direction and relatively flexible in the horizontal direction, the vertical direction being that which goes from the upper opening to the lower opening. The interior face comprises at least one corrugated surface portion vertically and at least one perimeter channel (6) perpendicular to the corrugations of the at least one portion for coupling the shade to the support structure.

The disclosure relates to an interchangeable lampshade system. A lampshade system includes an outer shade having a first frame disposed about a first perimeter of the outer shade and a second frame disposed about a second perimeter of the outer shade. The outer shade further comprises a structural side comprising a first side attached to the first frame and a second side attached to the second frame. The lampshade system includes an inner shade configured to be disposed about an interior surface of the structural side of the outer shade. The lampshade system includes a socket component configured to attach the outer shade to a lamp socket, wherein the socket component is attached to one or more of the first frame of the outer shade or the second frame of the outer shade.

The disclosure relates to a lamp fitting apparatus system. A system includes a polygonal socket connector comprising a first tapered fitting, wherein the polygonal socket connector is configured to connect with a lamp socket. The system includes a polygonal bracket comprising a second tapered fitting, wherein the polygonal bracket is configured to attach to a lampshade. The system is such that the second tapered fitting of the polygonal bracket corresponds with the first tapered fitting of the polygonal socket connector, such that the polygonal bracket and the polygonal socket connector form a compressing fitting configured to connect the lampshade to the lamp socket.

A shield for a lighting fixture includes a panel that is optically transparent and a screen attached to the panel. The screen has opaque segments, where the opaque segments have gaps therebetween. The screen is screen printed onto the panel. The opaque segments are distributed on the panel in a pattern.

A shield for a lighting fixture includes a panel that is optically transparent and a screen attached to the panel. The screen has opaque segments, where the opaque segments have gaps therebetween. The screen is screen printed onto the panel. The opaque segments are distributed on the panel in a pattern.

Patterned light-blocking elements are prepared using a method having operations A) through F), or a method having operations A) through G). Such methods include providing an ii) embossed and densified foamed opacifying layer on the back side of a i) fabric and a iii) non-foamed function composition on the ii) embossed and densified foamed opacifying layer. Embossing can be carried out using any suitable embossing means including a continuous embossing belt or web or an embossing roller or sleeve. The embossing operation provides a visible relief pattern in the ii) embossed and densified foamed opacifying layer that can be viewed from the face side of the patterned light-blocking element when appropriately backlit as a transmissive display in a darkened environment. Such elements can be used as window treatments as well as decorative fabrics in various environments.

Patterned light-blocking elements are prepared using a method having operations A) through F). Such method includes providing an ii) embossed and densified foamed opacifying layer on the back side of a i) fabric and a iii) non-foamed function composition on the ii) embossed and densified foamed opacifying layer. Embossing can be carried out using a specific i) fabric having a prefabricated visible relief pattern on its face side. During embossing and densification, this prefabricated visible relief pattern self-embosses the ii) embossed and densified foamed opacifying layer, thus providing a visible relief pattern in that layer that can be viewed from the face side of the patterned light-blocking element when appropriately backlit as a transmissive display in a darkened environment. Such elements can be used as window treatments as well as decorative fabrics in various environments.