The present disclosure relates to a photosensitive structure and a mobile lighting device. The photosensitive structure includes a head housing, and a metal substrate, a lens, a shading bowl, and a light sensor that are located in the head housing. The metal substrate, the lens, and the light sensor are all fixed in the head housing, and the metal substrate is located between the lens and the light sensor, the metal substrate is electrically connected to the light sensor. The shading bowl is fixed to the metal substrate and located between the metal substrate and the lens. Along a light incoming direction, the photosensitive structure is provided with a light inlet located outside a projection of the shading bowl on the metal substrate, the light sensor is configured to sense an external brightness through the light inlet.

A polygonal rotary projection lamp has a base, a polygonal frame, a film set, a polygonal fixing frame, and an illumination set. The base has a disc configured to be driven to spin. The polygonal frame is mounted to the disc and has multiple bottom frame units. The film set is mounted to the polygonal frame and has multiple film units mounted to the polygonal frame and covering the multiple bottom frame units respectively. Each film unit is flat and has a pattern. The polygonal fixing frame is detachably mounted to the polygonal frame and has multiple top frame units respectively connected to the multiple bottom frame units to respectively fix the multiple film units. The illumination set is mounted within the base and emits light toward the polygonal frame. The light passes through each film unit with the pattern to project the pattern.

The present application relates to a panel structure for stamping of an integrally formed lamp panel. The panel structure for stamping of the integrally formed lamp panel at least includes a reflective film layer, an adhesion layer, a base material layer and a protective layer, wherein the reflective film layer is arranged on one surface of the base material layer through the adhesion layer, and the protective layer is arranged on the other surface of the base layer; the base material layer includes a metal layer, and a chemical treatment layer arranged on at least one surface of the metal layer, the base material layer can be integrally formed lamp panel with the reflective film layer. The present application has the following beneficial effects: the panel structure can be applied to stamping of the integrally formed lamp panel; the yield is increased and the production efficiency is improved.

The present application relates to a panel structure for stamping of an integrally formed lamp panel. The panel structure for stamping of the integrally formed lamp panel at least includes a reflective film layer, an adhesion layer, a base material layer and a protective layer, wherein the reflective film layer is arranged on one surface of the base material layer through the adhesion layer, and the protective layer is arranged on the other surface of the base layer; the base material layer includes a metal layer, and a chemical treatment layer arranged on at least one surface of the metal layer, the base material layer can be integrally formed lamp panel with the reflective film layer. The present application has the following beneficial effects: the panel structure can be applied to stamping of the integrally formed lamp panel; the yield is increased and the production efficiency is improved.

The present invention creates the world's first Digital Lampshade Display utilizing new lighting and display technologies such as Organic Light Emitting Diodes (OLED), Active-Matrix Organic Light-Emitting Diodes (AMOLED), Organic Light Emitting

Transistors (OLET), and E-Ink, among others. The invention herein can emit light from both the exterior and interior surface(s) of its lampshade, and will provide the user with a display upon which digital images and non-static motion imagery may be viewed. The invention will further allow the user to download images and motion imagery onto its display lampshade, to change a room's decorative and aesthetic feel. The invention will further enable the user to use the Wireless Remote Control to control the lampshade's functions such as adjusting brightness and/or contrast, selecting images to display, etc. Thus the invention herein will give the user the ability to customize on-command the color, design, pattern, and illumination characteristics of their lampshade(s).

The present invention creates the world's first Digital Lampshade Display utilizing new lighting and display technologies such as Organic Light Emitting Diodes (OLED), Active-Matrix Organic Light-Emitting Diodes (AMOLED), Organic Light Emitting

Transistors (OLET), and E-Ink, among others. The invention herein can emit light from both the exterior and interior surface(s) of its lampshade, and will provide the user with a display upon which digital images and non-static motion imagery may be viewed. The invention will further allow the user to download images and motion imagery onto its display lampshade, to change a room's decorative and aesthetic feel. The invention will further enable the user to use the Wireless Remote Control to control the lampshade's functions such as adjusting brightness and/or contrast, selecting images to display, etc. Thus the invention herein will give the user the ability to customize on-command the color, design, pattern, and illumination characteristics of their lampshade(s).

A shade system for a jar-style lighting fixture includes a circular shaped resilient adaptor having a first end and a second end that are secured by a fastener. An elongated curved cover is removably secured onto the adaptor via a connector and a complementary connector, and surrounds the lighting fixture horizontally along a 180-degree axis. The adaptor includes a shape and size that is complementary to the shape and size of the jar of a jar-style lighting fixture, and a rubber gasket is provided along the inside surface of the adaptor to provide grip and cushioning against the glass jar.

A LED light assembly configurable in a plurality of manners to offer various ornamental appearances. The LED light assembly of the present invention includes at least one core mounting member wherein the core mounting member further includes an inner engagement section formed proximate the upper opening thereof. The inner engagement section includes a wall and a bottom formed to mateably receive a shade member. A plurality of connection members are secured above the inner engagement section and are aligned so as to facilitate an electrical connection between pins of a LED light integrally formed with a shade member that is operably coupled to the core mounting member. The present invention further includes a plurality of connection members that are operably coupled to the core mounting member so as to assemble a plurality of core mounting members to create a desired ornamental appearance of the LED light assembly.

A lighting system includes a light source unit and a light-distributing member. The light source unit includes a laser light source. The light-distributing member has the function of reflecting incident light that has been emitted as a beam of light from the light source unit toward a target space. The light-distributing member transforms the incident light into lighting light having a different light distribution property from the incident light and distributes the lighting light over the target space.

A lighting system includes a light source unit and a light-distributing member. The light source unit includes a laser light source. The light-distributing member has the function of reflecting incident light that has been emitted as a beam of light from the light source unit toward a target space. The light-distributing member transforms the incident light into lighting light having a different light distribution property from the incident light and distributes the lighting light over the target space.