The present disclosure discloses a transparent lampshade used for solar lamp, comprising a transparent lampshade body, an upper side of the lampshade body is provided with an installing recess for installing a solar luminous lamp assembly, and an upper light-transmitting portion located on a circumference of the installing recess and capable of exposing the solar luminous lamp assembly and transmitting light upwardly. Through cooperation of the installing recess and the upper light-transmitting portion in the disclosure, not only the installation of the solar luminous lamp assembly but also the use effect of light transmission on the upper side can be realized, and the outstanding effect close to the full-lighting even can be achieved, thus to maximally improve lighting effect of the whole solar lamp and bring people a more impressive visual impact, thereby greatly meeting more practical needs and facilitating further innovation and development of industry.

Disclosed is a lighting fixture with a shroud that can be removed and repositioned on the housing of the lighting fixture. The shroud may have a first end with a first shape and a second end with a second shape that is different than the first shape. The user may reorient the shroud to face one of the two ends away from and at different elevations relative to the lens to provide different shapes to the light emitted from the fixture.

An origami lamp includes a lamp stand having a standing portion and a connecting portion, a light emitter provided with a light source, and a lampshade, which are connected integrally. By bending and fastening a planar bendable sheet, a bottom section, a lower part and an upper part of a middle section and a top section of the planar bendable sheet are respectively formed into the standing portion as a tube, the connecting portion as a cone, the light emitter as another cone and the lampshade as a cloak at the same time. As a result, the origami lamp is easily formed from the planar bendable sheet, so the planar bendable sheet can serve as the product for sale for the convenience in storage and transportation.

The invention provides a 3D printed object (210) and a method of manufacturing such an object (210) by means of fused deposition modelling. The method successively comprises the steps of (i) 3D printing a printable material (120) to create a layer stack (230) of printed material (210), wherein the layer stack (210) bounds a space (240), wherein the layer stack (210) has an inner stack surface (231) and an outer stack surface (232), the inner stack surface (231) facing towards the space (240) and the outer stack surface (232) facing away from the space (240), (ii) providing a heat shrink (250) onto the layer stack (230), wherein the heat shrink (250) has an inner heat shrink surface (251) and an outer heat shrink surface (252), the inner heat shrink surface (251) facing towards the outer stack surface (232) and the outer heat shrink surface (252) facing away from the outer stack surface (232), and (iii) applying heat to shrink (250) the heat shrink so that the inner heat shrink surface (251) is in physical contact with the outer stack surface (232) and the heat shrink (250) is conformal to the layer stack (230). The layer stack (230) is light transmissive, and the heat shrink (250) is arranged to provide an optical effect chosen from the group consisting of refraction, diffraction, reflection, diffusion and conversion. The 3D printed object (210) may be used as a component of a lighting device (600), such as a lampshade.

Disclosed is a lighting fixture with a shroud that can be removed and repositioned on the housing of the lighting fixture. The shroud may have a first end with a first shape and a second end with a second shape that is different than the first shape. The user may reorient the shroud to face one of the two ends away from and at different elevations relative to the lens to provide different shapes to the light emitted from the fixture.

The present disclosure relates to a lighting device simulating visual effect of candle flame includes an immovable assembly and a movable assembly. The immovable assembly has a stationary supporting structure for holding a light source in position. The movable assembly has a light-effect component for simulating visual effect of natural flame at a candle wick. The movable assembly further includes at least a part of a driving component accommodated in the supporting structure. The part of the driving component and the light-effect component of the movable assembly are such connected to each other that when the part of the driving component moves positively and/or is driven to move passively, at least a part of the light-effect component performs swing movement. The lighting device thus can simulate naturally flickering or dancing flame of a burning candle, thereby creating lighting effect and atmosphere as those provided by a real candle.

A wall lamp includes a lamp holder and a lamp cover. A lamp bulb is located in the lamp holder. The lamp cover is located on the lamp holder. A fixing plate is located on a bottom portion of the lamp cover. A pattern film defined in the lamp cover. A pattern is capable of being projected from the lamp cover when the lamp bulb is lighted. Patterns can be projected to the wall and can change follow the pattern film. The shape of the lamp cover can be simplified, instead of conventional complex shape.

A lampshade including a lampstand and a flame body. The lampstand includes a hollow column. The flame body is an integrated structure including a first curved surface, a second curved surface, and a first cavity defined by the first curved surface and the second curved surface. The first curved surface is perpendicularly disposed on the lampstand. The second curved surface is aslant disposed on the lampstand with respect to the first curved surface. The first curved surface and the second curved surface each include a top edge, two side edges, and a bottom edge. The bottom edge of the second curved surface and a connection line of two end points of the bottom edge of the first/second curved surface form a semicircular opening. The hollow column includes a first through hole corresponding to the semicircular opening in shape and size.

A light shield for a ring light, to reduce abnormal images occurring because of errant and uncontrolled light entering an image-capturing module, includes a first shield portion, a second shield portion, and a third shield portion. The first shield portion is on an exterior of the light shield. The third shield portion is on an interior of the shield. The second shield portion is arranged between the first shield portion and the third shield portion and is inclined relative to the first and third shield portions. The light shield controls the direction of light emitted from the ring light, allowing an adjacent camera module or other image-capturing device to function normally and accurately. The disclosure further provides a lamp assembly including the light shield.

A wall lamp includes a lamp holder and a lamp cover. A lamp bulb is located in the lamp holder. The lamp cover is located on the lamp holder. A fixing plate is located on a bottom portion of the lamp cover. A pattern film defined in the lamp cover. A pattern is capable of being projected from the lamp cover when the lamp bulb is lighted. Patterns can be projected to the wall and can change follow the pattern film. The shape of the lamp cover can be simplified, instead of conventional complex shape.