Abstract: A device (1) for coating a substrate (4) with nanometric sized particles, wherein the device comprises: a plurality of aerodynamic lenses able to product a jet (3) of nanometric sized particles, each of the aerodynamic lenses having a longitudinal axis, the aerodynamic lenses being arranged so that the various longitudinal axes are parallel and oriented in a first direction (X) defining the direction of propagation of the jet and in the form of at least two columns (9, 10) offset from each other in a second direction (Y) orthogonal to the first direction, where the first and the second column each comprise at least one of the aerodynamic lenses, the at least one of the aerodynamic lenses of the first column also being offset relative to the at least one of the aerodynamic lenses of the second column in a third direction (Z) that is both orthogonal to the first direction and to the second direction.

Abstract: A device (1) for coating a substrate (4) with nanometric sized particles, wherein the device (1) comprises: a plurality of means (2a, 2b, 2c, 2d) called production means, each able to product a jet (3) of nanometric sized particles, each of said production means having a longitudinal axis, the production means being arranged so that the various longitudinal axes are parallel and oriented in a first direction (X) defining the direction of propagation of the jet and in the form of at least two columns (9, 10) offset from each other in a second direction (Y) orthogonal to the first direction (X), where the first (9) and the second column (10) each comprise at least one production means, said at least one production means (2a, 2b, 2c, 2d) of the first column (9) also being offset relative to said at least one production means (2a, 2b, 2c, 2d) of the second column (10) in a third direction (Z) that is both orthogonal to the first direction (X) and to the second direction (Y).

Abstract: An inline driver module includes an input connector, the input connector comprising a live contact and a neutral contact, the live contact configured to connect to a live line of an AC power socket, the neutral contact configured to connect to a neutral line of the AC power socket; an output connector, the output connector comprising a positive contact and a negative contact; and a driver module, the driver module disposed between the input connector and the output connector, the driver module comprising a driver housing and a driver PCB, a driver housing cavity defined within the driver housing, the driver PCB disposed within the driver housing cavity, the driver PCB connected in electrical communication with the live contact, the neutral contact, the positive contact, and the negative contact, the driver PCB configured to convert an AC power input from the AC power socket to a DC power output.

Abstract: A trim system includes a trim housing defining a top trim housing end and a bottom trim housing end, the trim housing defining an inner trim housing surface, the inner trim housing surface defining a trim housing bore extending into the trim housing from the bottom trim housing end towards the top trim housing end, the trim housing bore defining an axis; and a trim piece defining a top trim piece end and a bottom trim piece end, the top trim piece end inserted into the trim housing bore, the trim piece including a retention clip defining a first end and a second end, the first end secured to a base of the trim piece, the second end defining at least one tooth, the at least one tooth cutting into the inner trim housing surface and axially securing the trim piece to the trim housing relative to the axis.

Abstract: A system for mounting an electrical device to an electrical junction box may include a mounting plate configured to be coupled to a junction box, and a coupler plate configured to be coupled to the mounting plate and an electrical device. The mounting plate may include at least one a curved slot, and the coupler plate may include at least one pin. The mounting plate and the coupler plate may be configured to be coupled to one another via insertion of the at least one pin into the at least one curved slot, and rotating the coupler plate and the mounting plate relative to one another, so that the at least one pin follows the at least one curved slot and deflects and passes a locking clip of the mounting plate, such that the mounting plate and the coupler plate are coupled to one another.

Abstract: A system for mounting an electrical device to an electrical junction box may include a mounting plate configured to be coupled to a junction box, and a coupler plate configured to be coupled to the mounting plate and an electrical device. The mounting plate may include at least one a curved slot, and the coupler plate may include at least one pin. The mounting plate and the coupler plate may be configured to be coupled to one another via insertion of the at least one pin into the at least one curved slot, and rotating the coupler plate and the mounting plate relative to one another, so that the at least one pin follows the at least one curved slot and deflects and passes a locking clip of the mounting plate, such that the mounting plate and the coupler plate are coupled to one another.

Abstract: The present disclosure discloses a light fixture, which includes a junction box, a first lid over the junction box, a first lid body hinged on the junction box, a second lid, a second lid body located between the second lid and junction box, and a space located between the junction box and the second lid body.

Abstract: A downlight retrofit assembly includes a reflector, the reflector defining a top reflector end and a bottom reflector end, the reflector defining a reflector bore extending through the reflector from the top reflector end to the bottom reflector end, the reflector bore defining a top reflector aperture and a bottom reflector aperture; a lens, the lens attached to the reflector proximate the bottom reflector end, the lens covering the bottom reflector aperture; and a light engine, the light engine comprising a SSL source and PCB, the SSL source attached to the PCB, the light engine covering the top reflector aperture, the SSL source disposed within the top reflector aperture, the SSL source configured to emit light through the lens.

Abstract: An inline driver module includes an input connector, the input connector comprising a live contact and a neutral contact, the live contact configured to connect to a live line of an AC power socket, the neutral contact configured to connect to a neutral line of the AC power socket; an output connector, the output connector comprising a positive contact and a negative contact; and a driver module, the driver module disposed between the input connector and the output connector, the driver module comprising a driver housing and a driver PCB, a driver housing cavity defined within the driver housing, the driver PCB disposed within the driver housing cavity, the driver PCB connected in electrical communication with the live contact, the neutral contact, the positive contact, and the negative contact, the driver PCB configured to convert an AC power input from the AC power socket to a DC power output.

Abstract: A trim system includes a trim housing defining a top trim housing end and a bottom trim housing end, the trim housing defining an inner trim housing surface, the inner trim housing surface defining a trim housing bore extending into the trim housing from the bottom trim housing end towards the top trim housing end, the trim housing bore defining an axis; and a trim piece defining a top trim piece end and a bottom trim piece end, the top trim piece end inserted into the trim housing bore, the trim piece including a retention clip defining a first end and a second end, the first end secured to a base of the trim piece, the second end defining at least one tooth, the at least one tooth cutting into the inner trim housing surface and axially securing the trim piece to the trim housing relative to the axis.

Abstract: An inline driver module includes an input connector, the input connector comprising a live contact and a neutral contact, the live contact configured to connect to a live line of an AC power socket, the neutral contact configured to connect to a neutral line of the AC power socket; an output connector, the output connector comprising a positive contact and a negative contact; and a driver module, the driver module disposed between the input connector and the output connector, the driver module comprising a driver housing and a driver PCB, a driver housing cavity defined within the driver housing, the driver PCB disposed within the driver housing cavity, the driver PCB connected in electrical communication with the live contact, the neutral contact, the positive contact, and the negative contact, the driver PCB configured to convert an AC power input from the AC power socket to a DC power output.

Abstract: The present disclosure discloses a light fixture, which comprises a junction box, a first lid over the junction box, a first lid body hinged on the junction box, a second lid, a second lid body located between the second lid and junction box, and a space located between the junction box and the second lid body.

Abstract: A system for mounting an electrical device to an electrical junction box may include a mounting plate configured to be coupled to a junction box, and a coupler plate configured to be coupled to the mounting plate and an electrical device. The mounting plate may include at least one a curved slot, and the coupler plate may include at least one pin. The mounting plate and the coupler plate may be configured to be coupled to one another via insertion of the at least one pin into the at least one curved slot, and rotating the coupler plate and the mounting plate relative to one another, so that the at least one pin follows the at least one curved slot and deflects and passes a locking clip of the mounting plate, such that the mounting plate and the coupler plate are coupled to one another.

Abstract: An inline driver module includes an input connector, the input connector comprising a live contact and a neutral contact, the live contact configured to connect to a live line of an AC power socket, the neutral contact configured to connect to a neutral line of the AC power socket; an output connector, the output connector comprising a positive contact and a negative contact; and a driver module, the driver module disposed between the input connector and the output connector, the driver module comprising a driver housing and a driver PCB, a driver housing cavity defined within the driver housing, the driver PCB disposed within the driver housing cavity, the driver PCB connected in electrical communication with the live contact, the neutral contact, the positive contact, and the negative contact, the driver PCB configured to convert an AC power input from the AC power socket to a DC power output.

Abstract: A can light assembly includes a junction box, the junction box defining a top junction box end and a bottom junction box end; a light engine mounted to the bottom junction box end, the light engine includes a reflector, the reflector defining a top reflector end and a bottom reflector end, the reflector defining a reflector bore extending through the reflector from the top reflector end to the bottom reflector end, the reflector bore defining a top reflector aperture at the top reflector end and a bottom reflector aperture at the bottom reflector end; a lens covering the bottom reflector aperture; and a light PCB, the light PCB includes an SSL source, the light PCB covering the top reflector aperture; and a trim housing, the trim housing bore defining a top trim housing aperture at the top trim housing end, the light engine extending through the top trim housing aperture.

Abstract: A downlight retrofit assembly includes a reflector, the reflector defining a top reflector end and a bottom reflector end, the reflector defining a reflector bore extending through the reflector from the top reflector end to the bottom reflector end, the reflector bore defining a top reflector aperture and a bottom reflector aperture; a lens, the lens attached to the reflector proximate the bottom reflector end, the lens covering the bottom reflector aperture; and a light engine, the light engine comprising a SSL source and PCB, the SSL source attached to the PCB, the light engine covering the top reflector aperture, the SSL source disposed within the top reflector aperture, the SSL source configured to emit light through the lens.

Abstract: Method for self-stabilizing deposition of a stoichiometric compound by reactive sputtering using a cold plasma. A reactive gas is supplied to a target, the instantaneous power applied to the target is cyclically reduced and increased at a frequency sufficiently low that a reaction between the target material and the reactive gas takes place on the surface of the target, and the product of the reaction is then sputtered off the surface of the target and onto a substrate. The alternating decrease and increase of the instantaneous power applied to the target at low frequency provides for self-stabilizing deposition of the reaction product on the substrate.