A lighting system having a tubular, translucent housing including a light source disposed within the a recess of the housing. The light source includes one or more light-emitting elements on one or both sides. The lighting system is sized to fit within a receiving member, which may be a portion of a landscape structure or may be a stand-alone unit. Adjustment of the orientation of the housing relative to the receiving member changes the direction of light emitted by the light-emitting elements.

A portable LED self-powered set up stand for temporary field placement, powering and repositioning an LED light without having to wire or rewire the LED light if a field placement of a LED light is changed with the set up stand having a first extension for temporary on-the-go connection to one of a set of support bases and a second extension for temporary on-the-go connection to a second extension supporting an LED light in a viewable condition with the LED set up stand including an internal replaceable dc power source for temporarily powering an LED light during a field installation, creation and light evaluation of an LED light display.

A reusable LED landscape light set up tool and method for either positioning, repositioning or illumination of a LED landscape light with a DC power source and without hardwiring the LED landscape light prior to an attachment of the LED landscape light to a permanent power source.

The present disclosure discloses a light distributing component, a light source module, a lawn lamp cap and a lawn lamp. The light distributing component includes an inner ring polarizing lens and an outer ring polarizing lens, and the inner ring polarizing lens and the outer ring polarizing lens have a common axis center, and the outer ring polarizing lens surrounds the inner ring polarizing lens, the inner ring polarizing lens is configured to deflect light of a light-emitting unit toward a direction close to the axis center; and the outer ring polarizing lens is configured to deflect light of the light-emitting unit in a direction away from the axis center.

A closure for a lighting fixture includes a cover having interior and exterior surfaces that defines at least a part of an enclosure of the lighting fixture. In certain aspects, the cover comprises mounts for mounting circuitry to the interior surface of the cover and at least one attachment feature for affixing the cover to a cabinet of the lighting fixture. A light source and driver circuitry are also affixed to the cover. Because the driver circuitry and the light source are both mounted to the same cover of the lighting fixture, the light source may be replaced with an alternate light source having different voltage and current specifications, for example, by replacement of the cover with another cover. In this manner, light sources having different operating characteristics and specifications may be replaced or interchanged with relative ease.

A connector and a wireless controller for a wired lighting system are disclosed. The connector and wireless controller and connected via two wires. The connector also has at least one cap that covers two channels for electrically coupling additional two wires—one wire for connecting to a power supply and another wire for connecting to one or more lighting devices. The connector can be easily installed in an existing wired lighting system to retrofit the system with a wireless controller.

A grow light includes a plurality of cool white LEDs, a plurality of warm white LEDs, and a driver electrically coupled to the cool white LEDs and the warm white LEDs. An intensity level and spectral composition of the radiant energy emitted by the grow light may be tuned or configured by varying a ratio of the quantity of cool white LEDs to the quantity of warm white LEDs, by varying a spatial arrangement among the cool white LEDs and the warm white LEDs, or by varying a level of current provided to some or all of the cool white LEDs and the warm white LEDs.

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 solar disk light has a central body and an annular shelf surrounding the central body and attached to the central body by one or more struts, defining a gap between an inner surface of the annular shelf and the central body. LEDs are disposed on the annular shelf. The central body has solar cells for harvesting solar energy and detecting ambient light. The central body contains a rechargeable battery for storing harvested solar energy, a switch, and wiring and driver electronics for operably connecting the solar cells, battery, switch, and LEDs. A translucent shell is on the disk light body, covering the annular shelf and LEDs, such that light emitted by the LEDs shines through the shell. The shell has an opening for receiving the central body such that the solar cells are not covered by the shell, the shell having an inner wall received in the gap.

A light harvester or collector collects solar radiation from an unshaded location adjacent a growing plant. The light harvester can be either imaging (e.g., parabolic reflectors) or non-imaging (e.g., compound parabolic concentrator). The concentrated solar radiation is projected into a light transmitter that conducts the light through the plant's outer canopy and into the inner canopy to a diffuser which disperses and reradiates the light into the inner canopy. The diffused light transforms a non-productive, potentially leafless zone of the plant into a productive zone so that more fruit can be produced per volume of land surface. The system can prevent transmission of infrared into the inner canopy so that the inner canopy zone is not heated and the amount of water lost to transpiration is reduced. The system can also modify other spectral components to affect plant development and to control pests and diseases.