A decorative light applicable for landscaping includes an expandable and collapsible main body and a lighting portion. The main body includes a plurality of first elongated members and a plurality of second elongated members that are pivotally connected to and overlap the first elongated members. The main body is expandable and collapsible between its two opposite lateral sides through pivotal movement of the first and the second elongated members. The lighting portion includes a power supply unit and a plurality of light strings. The light strings are electrically connected to the power supply unit and extend into the first and the second elongated members respectively. Each light string is provided with a plurality of light-emitting diode (LED) lamp beads that are arranged at intervals.

A decorative lamp includes a base; at least three LED circuit boards, a plurality of LED lamp beads distributed on an outer surface of each LED circuit board; a main control board electrically connected with the LED circuit boards and having a controller configured to send a timing signal; a driving power electrically connected with the main control board and having a PWM driving circuit electrically connected with the LED circuit boards, for receiving the timing signal sent by the controller and outputting a PWM signal according to the received timing signal; and a hollow lampshade surrounding the LED circuit boards and the main control board.

The present invention provides an outdoor lighting lamp comprising a ground inserted base including an assembly opening and a ground nail, and a lighting module including a first shell, a light projection gap, a light emitting component, and a solar panel connected with the light emitting component. The light generated by electrifying the light emitting component is only projected by the light projection gap. One end of the first shell is mounted at the assembly opening, and the first shell is forced to rotate relative to the ground inserted base based on an axis of the ground nail to be a rotation axis. The solar panel is arranged at one end of the first shell where is in an opposite direction of the ground inserted base and not in horizontal. The solar panel adjusts a light receiving position by rotating the first shell relative to the ground inserted base.

The present invention provides a laser spot light with improved radiating structure which includes a cylindrical shell, a mounting board fixed within the cylindrical shell, at least one laser head, an inner radiator made from heat-conductive metal and configured for supporting the at least one laser head and fixed on the mounting board, and an outer radiator made from heat-conductive metal and fixed to the side wall of the cylindrical shell with a part of the outer radiator passing across the cylindrical shell and touching with the inner radiator. Therefore an inner heat can be conducted to the outside of the cylindrical shell, and an operation temperature of the laser head can be maintained in a normal range.

The laser projection light may be an AC powered laser projection light or a DC powered battery operated unit, and may also incorporate LED light or other light source device to that provides an LED or other light device illumination or other function in addition to the laser projection function in case people do not want to see the laser projection light performance and wish to switch off the laser beam. The laser light is garden light, or part of light string, laser project bulb, laser night light has its parts & accessories to offer wide area for plurality lighted image, array, geometric matrix image for desired power or wattage. Optional, A laser projection light has safety device to prevent people from directly looking into the laser beams to harm their eyes.

A light stake for holding a light bulb includes a spike with a body extending along a spike axis between a top end and an insertion end, a connecting base at the top end of the body, and a socket having a socket axis. The socket has a socket base, a plurality of fingers, and a strengthening fillet. The socket base is perpendicular to the socket axis and with a solid-material periphery extending on all sides of the socket axis. The fingers extend from the socket base along the socket axis, with each finger extending between a fixed end near the socket base and a movable end. The strengthening fillet is at the intersection between the fixed end of each finger and the socket base, and increases the local thickness of each fixed end and of the socket base for increased rigidity of the fixed end.

Disclosed are bi-pin LED lamps, like the GY6 lamp, that address the heat-dissipation problems associated with traditional LED light sources.

A lighting system comprises at least one excitation source (5), preferably an LED, operable to generate and radiate excitation radiation of a first wavelength (λ.sub.1); a shade (4) configured to at least in part surround the at least one source (5) and remotely located thereto; and at least one phosphor (16) provided in or on at least a part of the shade (4), wherein the phosphor (16) emits radiation of a different wavelength in response to incident excitation radiation. The phosphor can be provided on a part of an outer or inner surface of the shade. Alternatively, or in addition, the phosphor is incorporated within the shade. The lighting system finds particular application as a hanging, a desk, a floor standing, a wall mountable, a spot, an outdoor or an accent lighting fixture.

The present invention relates to a dynamic lighting device, including at least two lamps and a base. Each of the at least two lamps is connected to a respective paired flexible stalk configured to rotate in a circumferential direction of the base. When the flexible stalks rotate in the circumferential direction of the base, due to dynamic bending deformation of the flexible stalks, the at least two lamps have random movement in an upright direction and the at least two lamps have circumferential random wiggles against a joint defined between the flexible stalks and the base as a pivotal point.

Disclosed is a light projector. The light projector includes a housing, a support mechanism, an optical lens, a light-emitting assembly, and a drive device. The light-emitting assembly includes a water ripple optic, a control board, at least one incoherent light source, and at least one coherent light source. One side of the water ripple optic is arranged facing the optical lens, and the control board is arranged on the other side of the water ripple optic. The control board is provided with a first through-hole and a second through-hole. The drive device passes through the first through-hole and is connected to the water ripple optic to drive the water ripple optic to rotate. The coherent light source is arranged in the second through-hole, and the incoherent light source is arranged on one side of the control board facing the water ripple optic, which effectively increases diversity of lighting effects.