A lighting apparatus includes a solar plate, a battery, a driver module, a light source, a lens tube, a main housing and a plugging bar. The solar plate converts a sunlight to an electricity. The battery stores the electricity. The driver module converts the electricity stored in the battery to a driving current. The solar plate is placed on a top side of the driver module and the light source is placed on a bottom side of the driver module. The lens tube has a top opening and a bottom opening. The top opening has a larger size than the bottom opening. The top opening is closer to the light source than the bottom opening. A light of the light source is emitted via a lateral lens surface of the lens tube between the top opening and the bottom opening.

A lighting apparatus includes a central hub, and four panels hingedly attached to each side of the hub. Three panels have an LED array each. The fourth panel houses an array of solar cells, an ON/OFF switch, a rechargeable battery, and electronics. The four panels are independently positionable with respect to the hub. A motion detector is configured to operate the apparatus such that when motion is detected, the switch is in the ON position, and the solar cells do not detect ambient light above a predetermined base level, the device electronics turn the LEDs on; and when motion is not detected for a predetermined period, or the switch is in the OFF position, or the solar cells detect ambient light above the predetermined base level, the LEDs are powered off.

A solar disk light has a disk light body, the disk light body including a housing and a lid over the housing, the housing being hollow to contain components of the disk light. The disk light body has solar cells on an outer surface thereof for harvesting solar energy and detecting ambient light, and LEDs for emitting light. The LEDs are adapted to be selectively driven to emit cool temperature light or warm temperature light. The wiring and driver electronics configured to deliver electrical power to the LEDs from the battery, and configured to drive some or all of the LEDs to emit warm light or cool light depending on a switch setting or signals received from a remote-control transmitter.

A solar disk light has a disk light body, the disk light body including a housing and a lid over the housing, the housing being hollow to contain components of the disk light. The disk light body has solar cells on an outer surface thereof for harvesting solar energy and detecting ambient light, and LEDs for emitting light. The LEDs are adapted to be selectively driven to emit white light or colored light. The wiring and driver electronics configured to deliver electrical power to the LEDs from the battery, and configured to drive some or all of the LEDs to emit white light or colored light depending on a switch setting or signals received from a remote-control transmitter.

A junction hub may include a fixture body include a top portion and a bottom portion. The junction hub may further include a connector device for operably coupling a mounting structure to the fixture body. The junction hub may even further include a terminal block disposed in the fixture body for facilitating the connection of a power source to at least one lighting fixture.

An electrically powered home security pathway fixture includes a head unit and a spike at a top end and a bottom end of an elongated body, respectively. An integrated camera configured to recognize an approaching object according to features stored in a database; a motion sensor coupled to the integrated camera and a light emitter for illumination which is activated by either: the motion sensor or detected ambient light level being below a threshold. A wireless communications interface configured to send video signals captured by the camera directly to a remote device via the wireless communications interface, after the server/database confirming that the recognized features of the approaching object is not on an approved list.

A flame lamp made of filament lamps, comprises a fixing device, a controller and one or a plurality of LED filament lamps, wherein the LED filament lamps are fixedly installed on the fixing device and electrically connected with the controller, and the controller is used for controlling the light emitting frequency and pulse brightness of the LED filament lamps. Each LED filament lamp comprises at least two light source arrays from top to bottom, wherein the light emitting frequencies and/or the pulse brightnesses of at least two light source arrays are different. Each LED filament lamp is vertically arranged, and the upper end and the lower end of each LED filament lamp are fixedly connected with the fixing device. Various specific assembly methods are provided. The present invention innovatively makes a flame lamp of filament lamps and uses one or a combination of a plurality of filaments to achieve the luminous effect of a flame through different assembly structures and flashing methods, which can effectively simplify the production process, reduce production cost and provide a good visual effect.

A wiring system for ground mounted lighting fixtures comprises a base of the lighting fixture that is located on top of the ground surface. The above-ground base includes a wiring box and construction of the base resists sprinkler water and rain from entering the wiring box. A connector device is mounted in the wiring box and has multiple ports for interconnecting the wires of the incoming power cable with wires of the outgoing power cable and interconnecting those wires with the wires of the power cable of the light source in the fixture. The connector device includes an internal circuit that provides a parallel connection of the light source cable with the incoming and outgoing power cables. Spring lever clamps are used to secure the various wires in the connector device ports and in connection with the internal circuit. The wiring box is thus integral with the light fixture.

Low voltage LED filament array lighting in accordance with embodiments of the invention are illustrated. One embodiment includes a LED array light including a cover component with first and second faces and containing a control circuitry and a battery electrically coupled to the control circuitry, a solar panel in contact with the first face of the cover component and electrically coupled to the control circuitry, and an LED filament light bulb in contact with the second face of the cover component and electrically coupled to the control circuitry, wherein the LED filament light bulb comprises an array of LEDs and a fluorescent material, wherein the control circuitry routes electricity generated by the solar panel to the battery for storage when the solar panel is generating electricity, and wherein the control circuitry routes electricity from the battery to the LED filament light bulb when the solar panel is not generating electricity.

An outdoor solar ground light includes a primary light board and a plurality of secondary light boards installed in the outdoor solar ground light and electrically connected with each other without requiring the use of a conductive wire, and capable of emitting light around the top and the sides of the ground light simultaneously, and the ground light adopts a light emitting diode such as a white/warm white LED or a RGB LED provided for users to select their favorite color or change the color cyclically. Unlike the commercial available ground light, the present invention has the advantages of simple assembling, easy use, convenient transportation and packaging, and aesthetic merchandise appearance.