The present application relates to a surgical light for illuminating an operating area, including a housing-like light body that accommodates at least a first and a second light unit and including a first power supply line that is electrically connected to the first light unit in order to feed electric current from a first voltage source to at least one light source of the first light unit, wherein the second light unit of the light body has at least one further light source and is connected to a second power supply line, that is separate from the first power supply line, by means of which second power supply line a second voltage source can be electrically connected to the second light unit.

A lighting fixture comprising a hollow body member having a proximal end and a distal end, wherein the hollow body member includes a heat dissipating feature at the distal end; a socket having a cavity, wherein the socket provides electrical current to a LED bulb having a base portion, wherein the base portion is encased inside the cavity; a biasing member having a first end and a second end, wherein the first end contacts the socket and is configured to push the LED bulb into the heat dissipating feature; a base member having a seat configured and sized to accept the second end of the biasing member, and a channel allowing the passage of electrical wires through the base member to the socket.

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.

An exterior molding system adapted to provide decoratively illuminated lighting for a building and which incorporates first and second lighting panels each having a plurality of illuminating devices. The lighting panels are attachable to a soffit that is itself attached to a building. The second light panel is hinged to the first light panel so as to enable the second light panel to be deployed either opened or folded up under the first light panel. The second light panel includes illuminating devices that are visible when the second light panel is opened and that are hidden when the second light panel is folded under the first light panel. A remote control panel is in electrical communication with the illuminating devices. The control panel receives electrical power and selectively powers at least one (1) illuminating device.

A lighting system includes a housing. The housing includes a light source portion, an electronic component portion, and a partition wall that is disposed between the light source portion and the electronic component portion. Further, the housing includes a channel that extends at an angle downwards from a portion of the partition wall to the light source portion. The channel provides a passageway from the electronic component portion to the light source portion of the housing. A grommet is disposed in the inclined channel to prevent external environmental elements, such as dust, water, etc., from entering the electronic component portion from the light source portion. Further, the lighting system includes a mounting bracket on which one or more electronic components associated with the lighting system are mounted. The mounting bracket is disposed within the electronic component portion and coupled to a surface of the electronic component portion.

A door handle includes a case including a placement space therein, and a light guide disposed in the placement space and configured to guide light emitted from a light source, the light guide including a light exiting surface from which the light is irradiated toward the outside of the case. An irradiation passage hole through which the light irradiated from the light exiting surface passes is formed in the case. When a tangent line which passes through an outer surface of a door panel on a travelling direction side of the light passing through the irradiation passage hole and a wall surface for forming the irradiation passage hole is defined as a connecting line and an assembly of the connecting lines at the entire circumference of the irradiation passage hole is defined as a connecting line assembly, the light exiting surface is located on the outside of the connecting line assembly.

The present disclosure relates to an electroluminescent lighting device having high aperture ratio. The present disclosure provides an electroluminescent light device comprising: a substrate including an emission area and a non-emission area surrounding the emission area; a power line disposed in the emission area and defining an open area; a buffer layer covering the power line; an emission element disposed in the open area on the buffer layer; a link electrode overlapping the power line on the buffer layer, and having a first end connected to the emission element and a second end connected to the power line; a passivation layer deposited within a width of the power line covering the link electrode; an emission layer covering the emission area; and a cathode layer covering the emission area on the emission layer.

A deck light assembly for attachment to a deck railing includes a C-shaped body with a core nesting within a cover and a top plate extending between two legs. A foot extends inwardly from each of the legs to engage the bottom of the deck railing and secure the deck light assembly thereon. A solar panel on the top plate charges a battery and causes an LED light to illuminate in the absence of ambient light. A shade on the outer surface of one of the legs directs light downwardly. One leg includes a catch with a planar portion biased inwardly to engage the deck railing and configured to flex outwardly to disengage from the deck railing. A nub extends from the catch for application of an outward force to flex the planar portion for attaching or removing the deck light assembly from the deck railing.

An assembly includes a light source holding component sized and arranged to securely receive a source of light. The light source holding component may include a displaceable protective device that functions to generally protect against an accidental touching of electrical terminals of the light source holding component. An accessory mounting feature may also be provided to the light source holding component, The accessory mounting feature is adapted to cooperate with an accessory to provide a seal against a surface to which the light source holding component is attached. The light source holding component may have wire ports that are formed within an overall general outer diameter of the light source holding component. By way of example, the wire ports may include wire contacts having wires pre-attached thereto or the wire ports may include electrical connectors of the push-in type for receiving and thereupon holding wires inserted therein.

A lightbar assembly connector for use in a modular lightbar system to connect two or more lightbar assemblies together and having a design and configuration that enables the lightbar assembly connector and lightbar assemblies to be connected by moving the lightbar assembly connector in a direction generally transverse to the longitudinal axis of the lightbar assembly (or by moving the lightbar assembly in a direction generally transverse to the major surface of the lightbar assembly connector). It is thus possible to assemble a modular lightbar system comprised of a plurality of lightbar assemblies and lightbar assembly connectors, any of which are easily removable, replaceable, or serviceable without having to remove or move lightbar assemblies that do not need to be replaced or serviced.