Abstract: The present invention is directed to a tape light electrical connector that is configured to electrically and physically connect a tape light, such as a light emitting diode (LED) tape light and a lead wire together in order to provide electrical continuity between the tape light and the lead wire, and to prevent physical separation of the tape light from the lead wire, once the tape light and the lead wire have been coupled to the tape light electrical connector. The electrical connector may further be configured to allow for removal of the lead wire and the tape light from the electrical connector, and accordingly the electrical connector may be reusable for installation of other lead wires and tape lights to be connected thereto.

Abstract: Exemplary embodiments of the present invention are directed to a multi-wire connector that may include a terminal block including a plurality of set screws, in which the plurality of set screws are configured to be loosened and tightened relative to the terminal block, and a housing configured to contain the terminal block, in which the housing includes vents along an upper edge and along a lower edge, and the vents are configured to provide ventilation for the terminal block. The housing may also include two mounting tabs below the terminal block, and the mounting tabs are configured to secure the housing to a base mount.

Abstract: Exemplary embodiments of the present invention are directed to a magnetic electrical track that includes a track portion and one or more magnets attached to the track portion. The track portion includes a channel configured to receive the one or more magnets, a pair of slots and a raceway. The pair of slots may extend from one end of the track portion to the other end, and are configured to receive and retain one or more lighting fixtures. The raceway may also extend from one end of the track portion to the other end, and may be configured so as to receive and retain any conductors that may be accompanying the lighting fixtures. The one or more magnets may be secured to the track portion by one or more fasteners, and the track portion may include a threaded channel configured to receive the one or more fasteners.

Abstract: An example integrated electrical assembly for installation in a building structure is disclosed. The integrated electrical assembly may provide for power and telecommunications distribution in a building structure or a subspace of a building structure. A master tub configured to receive a plurality of electrical components and provide a common ground is disclosed. The master tub may be used in the integrated electrical assembly or alone. A multi-wire connector that may provide coupling of one or more wires to a circuit is disclosed. A junction box that may be installed in a wall, such as a pre-fabricated wall is disclosed.

Abstract: Exemplary embodiments of the present invention are directed to an integrated electrical assembly that may include an enclosure having a frame, a mounting flange extending around a periphery of the frame, a swing door coupled to the frame by a hinge, a first gasket coupled to the frame that engages a perimeter of the swing door when the swing door is in a closed position, a second gasket coupled to a perimeter of the mounting flange, and a master tub within the enclosure. The master tub may include a plurality of coupled enclosures that may be configured to receive at least one electrical component.

Abstract: Exemplary embodiments of the present invention are directed to an adjustable retaining bracket that can be secured to a surface and adjusted in a first elevational direction relative to the surface, in a second direction along an axis substantially perpendicular to the first elevational direction and towards or away from the surface and in a third direction substantially perpendicular to the second direction. The adjustable retaining bracket may include a base brace and at least one adjusting bolt configured to secure the adjustable retaining bracket to the surface. The adjustable retaining bracket may also include an outer tube operationally engaged with the base brace and an adjusting rod configured to move the outer tube along the third direction, and an inner tube in telescoping relationship with the outer tube and configured for movement relative to the outer tube along the second direction.

Abstract: The present invention is directed to a tape light electrical connector that is configured to electrically and physically connect a tape light, such as a light emitting diode (LED) tape light and a lead wire together in order to provide electrical continuity between the tape light and the lead wire, and to prevent physical separation of the tape light from the lead wire, once the tape light and the lead wire have been coupled to the tape light electrical connector. The electrical connector may further be configured to allow for removal of the lead wire and the tape light from the electrical connector, and accordingly the electrical connector may be reusable for installation of other lead wires and tape lights to be connected thereto.

Abstract: The present invention is directed to a wire fitting that may be used to pass a wire, cable or other conductor through a surface in order to produce a substantially secure and water tight connection between the wire fitting, the wire and the surface. The wire fitting may include a cap unit that is configured to be removably affixed to a base unit. The cap unit and the base unit may include corresponding threads to allow the cap unit to be screwed onto the base unit. A compressible plug may be placed between the cap unit and base unit in an opening at an end of the base unit. A washer with a set of ridges may also be placed between the cap unit and the base unit on the compressible plug to facilitate compression of the compressible plug and secure the cap unit into place.

Abstract: The present invention is directed to a wire fitting that may be used to pass a wire, cable or other conductor through a surface in order to produce a substantially secure and water tight connection between the wire fitting, the wire and the surface. The wire fitting may include a cap unit that is configured to be removably affixed to a base unit. The cap unit and the base unit may include corresponding threads to allow the cap unit to be screwed onto the base unit. A compressible plug may be placed between the cap unit and base unit in an opening at an end of the base unit. A washer with a set of ridges may also be placed between the cap unit and the base unit on the compressible plug to facilitate compression of the compressible plug and secure the cap unit into place.

Abstract: The present invention is related to power supply centers. The power supply centers of the present invention may be self-contained modular units. The power supply centers may have between one or more primary taps, a switch or dimmed tap to compensate for losses when dimming. The power supply centers may also have one or more secondary taps to provide secondary voltages of 11-30V depending upon the secondary voltage of the power supply center. Loads may be connected up the one or more secondary taps up to the full watt rating of the power supply center. In accordance with the power supply centers of the present invention, it is possible that loads at varying distances from the power supply center can be tapped on different taps to recover voltage drop and produce between 85% and 100% light output if the lighting system has been wired properly.

Abstract: The present invention achieves the above objects, among others, by providing, in a preferred embodiment, a transformer system for use with either a dimmer switch or an on/off switch, including: a transformer; a load connected to the transformer; a first tap connected to the transformer to provide a first voltage; and a second tap connected to the transformer to provide a second voltage higher than the first voltage. A method of using the transformer system is also provided.

Abstract: A low voltage power supply and distribution center comprises a housing and a housing door. The housing door is removably mounted to the housing and may be repositioned between a service position and a closed position. In the service or open position, the housing door is hingely mounted to the housing and provides easy access to circuit components. All of the circuit components of the low voltage power supply and distribution center are directly mounted to the housing door, and access to many of the circuit components, such as switches, fuses and circuit breakers, may be provided directly through the housing door. The housing door is manufactured of a material that efficiently dissipates heat through radiation such that it acts as a heat sink for the circuit components mounted thereon. Vents having adjustable dampers are formed in the housing door and the position of the dampers may be adjusted to meet code requirements associated with a specific installation.

Abstract: A low voltage power supply and distribution center comprises a housing (12) having three internal compartments including: a high voltage compartment (17), a low voltage distribution compartment (19), and a transformer compartment (21). The housing (12) is designed for surface or recessed mounting on or in a wall or ceiling. For recessed mounting, with the housing (12) surrounded with 20 cm (8 inches) of insulation, the maximum surface temperature of the housing is less than 90.degree. C. The three compartments (17,19,21) are formed by a removable power tray (15) having a torodial transformer (132) mounted thereon. The low voltage compartment (19) comprises a fuse panel (150) for mounting a plurality of plug-in fuses (153) from which the low voltage power is distributed. The high voltage compartment (17) comprises a switch or a dimmer (131) in a high voltage line between the transformer (132) and the incoming high voltage line, or the dimmer or switch may be remotely installed on a wall.