Abstract: A method for assembling a first housing, a second housing, and a driver board of a directional lighting fixture to one another is disclosed. The method includes installing the driver board to the second housing. The method further includes retaining the driver board in place within the second housing. Finally, the method includes installing the first housing to the second housing after the driver board is retained in place within the second housing.

Abstract: An illumination device is disclosed, and includes a first housing defining an interior cavity and an aperture, at least one lighting element, and a driver board electrically coupled to the lighting element. The driver board includes an antenna element. The driver board is positioned at least in part within the interior cavity of the first housing. The aperture of the first housing is positioned so as to create a pathway such that radio frequency (RF) signals reach the interior cavity of the first housing.

Abstract: A peripheral device for establishing a network connection with a gateway is disclosed, and includes a request module and a configuration logic. The request module sends a request for identification and receives an authenticator responsive to sending the request for identification. The authenticator includes data indicative of predefined settings of the gateway. The configuration logic is in data communication with a plurality of configurations stored within a memory of the peripheral device. In response to receiving the predefined settings from the request module, the configuration logic selects a specific configuration from the plurality of configurations, where the specific configuration defines a set of attributes that correspond to the predefined settings of the gateway. The configuration logic also activates the specific configuration once the specific configuration has been selected.

Abstract: A directional lighting fixture is disclosed. The directional lighting fixture includes a first housing, a lighting element, an optical element, and a driver board. The lighting element is located within the first housing and substantially aligned with a central axis of the directional lighting fixture. The lighting element is configured to generate visible light. The optical element is positioned directly in front of the lighting element. The optical element is configured to direct the visible light generated by the lighting element in a specific direction. The driver board is electrically coupled to the lighting element and includes an antenna element. The driver board is offset from the central axis of the directional lighting fixture. The antenna element is positioned to be at least flush with the lighting element.

Abstract: A driver circuit for powering a load is disclosed. The driver circuit includes an input for connection to a ballast, a rectifier, a switch, and a fault circuit. The rectifier converts AC power received from the input into DC power. The rectifier includes a rectifier input. The switch is electrically connected to the rectifier input. The switch is activated to create a short circuit at the rectifier inputs in response to receiving an activation signal. The fault circuit is electrically connected to the switch. The fault circuit generates the activation signal in response to detecting at least one of an over voltage, an over temperature, and an over current condition of the driver circuit.

Abstract: A driver circuit for powering a load is disclosed. The driver circuit includes an input for connection to a ballast, a rectifier, a switch, and a fault circuit. The rectifier converts AC power received from the input into DC power. The rectifier includes a rectifier input. The switch is electrically connected to the rectifier input. The switch is activated to create a short circuit at the rectifier inputs in response to receiving an activation signal. The fault circuit is electrically connected to the switch. The fault circuit generates the activation signal in response to detecting at least one of an over voltage, an over temperature, and an over current condition of the driver circuit.

Abstract: A driver circuit for powering a load is disclosed. The driver circuit includes an input for receiving for connection to a source of AC power, and a rectifier for converting the AC power from the input into DC power. The driver circuit also include a voltage bus filter, a high-frequency oscillator for generating a high-frequency AC signal, a resonant driver, a feedback circuit, and a high-frequency DC rectifier. The voltage bus filter smoothens the DC power from the rectifier, and includes at least one capacitor. The resonant driver is in electrical communication with the high-frequency oscillator, and limits a current of the high-frequency AC signal and produces a limited output voltage based on the high-frequency AC signal. The feedback circuit is in electrical communication with the resonant driver and the voltage bus filter, and maintains a charge on the capacitor of the voltage bus filter.

Abstract: A driver circuit for powering at least one light emitting diode (LED) in a dimming application is disclosed. The driver circuit includes an input for connection to a source of dimmed AC power and a rectifier for converting the dimmed AC power from the input into DC power. The driver circuit also includes a voltage bus filter for smoothening the DC power from the rectifier. The voltage bus filter includes at least one capacitor. The driver circuit also includes a feedback circuit in electrical communication with the rectifier. The feedback circuit causes the rectifier to continuously draw current from the inputs of the driver circuit.

Abstract: A peripheral device for establishing a network connection with a gateway is disclosed, and includes a request module and a configuration logic. The request module sends a request for identification and receives an authenticator responsive to sending the request for identification. The authenticator includes data indicative of predefined settings of the gateway. The configuration logic is in data communication with a plurality of configurations stored within a memory of the peripheral device. In response to receiving the predefined settings from the request module, the configuration logic selects a specific configuration from the plurality of configurations, where the specific configuration defines a set of attributes that correspond to the predefined settings of the gateway. The configuration logic also activates the specific configuration once the specific configuration has been selected.

Abstract: A dimmer circuit for at least one LED is disclosed. The LED is controlled by a TRIAC dimmer. A leakage current flows through the TRIAC dimmer if the TRIAC dimmer is off. The dimmer circuit include inputs for receiving a source of incoming AC power, a rectifier for receiving the source of incoming AC power and producing a DC voltage, a controller for receiving the DC voltage from the rectifier and providing a switching signal, a first circuit, and a loading circuit. The first circuit receives the switching signal from the controller. The first circuit includes a first switching element that is selectively activated based on the switching signal. The loading circuit receives the switching signal from the controller. The loading circuit includes a second switching element that is activated if the first switching element is deactivated. The loading circuit selectively provides a minimum loading current.

Abstract: A driver circuit for powering a load is disclosed. The driver circuit includes a self-oscillating half-bridge circuit, a resonant driver in electrical communication with the self-oscillating half-bridge circuit, and a DC voltage supply in electrical communication with the resonant driver. The self-oscillating half-bridge circuit is configured to generate a high-frequency AC signal. The resonant driver is configured to limit a current of the high-frequency AC signal and produce a limited output voltage based on the high-frequency AC signal. The DC voltage supply is configured to rectify the limited output voltage into a DC output voltage including a substantially constant current for powering the load.

Abstract: A driver circuit for delivering a generally constant voltage to a load is disclosed. The driver circuit includes a source of incoming AC power, a rectifier, and a constant voltage driver. The rectifier is connected to the source of incoming AC power and produces a DC voltage. The constant voltage driver receives the DC voltage from the rectifier. The constant voltage driver includes a selectively activated switching element for receiving the DC voltage, a controller, and an output line. The controller receives the DC voltage and is configured to send a drive signal to the switching element in order to activate the switching element. The output line provides the generally constant voltage to the load.

Abstract: A light fixture may have a housing containing a lighting element and any number of PCBs. A first PCB section may have circuitry that controls the lighting element. A second PCB section may have an antenna and circuitry that converts RF signals into control signal input to the first PCB section. The second PCB section may be operatively interconnected with the first PCB section, and may be contained in the housing in an orientation projecting from the first PCB section.

Abstract: A driver circuit for powering a load is disclosed. The driver circuit includes a self-oscillating half-bridge circuit, a resonant driver in electrical communication with the self-oscillating half-bridge circuit, and a DC voltage supply in electrical communication with the resonant driver. The self-oscillating half-bridge circuit is configured to generate a high-frequency AC signal. The resonant driver is configured to limit a current of the high-frequency AC signal and produce a limited output voltage based on the high-frequency AC signal. The DC voltage supply is configured to rectify the limited output voltage into a DC output voltage including a substantially constant current for powering the load.

Abstract: A lighting fixture is disclosed, and includes a plurality of lighting arrays, a master power module, a data communications link, and at least one slave power module. The master power module provides power and control to one of the plurality of lighting arrays, and transmits a control signal. The data communications link transmits the control signal. The slave power module provides power and control to another one of the plurality of lighting arrays based on the control signal from the master power module. The data communications link connects the master power module to the slave power module.

Abstract: A dimmer circuit for at least one LED is disclosed. The LED is controlled by a TRIAC dimmer. A leakage current flows through the TRIAC dimmer if the TRIAC dimmer is off. The dimmer circuit include inputs for receiving a source of incoming AC power, a rectifier for receiving the source of incoming AC power and producing a DC voltage, a controller for receiving the DC voltage from the rectifier and providing a switching signal, a first circuit, and a loading circuit. The first circuit receives the switching signal from the controller. The first circuit includes a first switching element that is selectively activated based on the switching signal. The loading circuit receives the switching signal from the controller. The loading circuit includes a second switching element that is activated if the first switching element is deactivated. The loading circuit selectively provides a minimum loading current.

Abstract: A light fixture may have a housing containing a lighting element and any number of PCBs. A first PCB section may have circuitry that controls the lighting element. A second PCB section may have an antenna and circuitry that converts RF signals into control signal input to the first PCB section. The second PCB section may be operatively interconnected with the first PCB section, and may be contained in the housing in an orientation projecting from the first PCB section.

Abstract: A system for pairing a plurality of peripheral devices is disclosed, and includes a portable electronic device and a plurality of peripheral devices in wireless communication with the portable electronic device. The portable electronic device includes a processor and memory. The processor is configured to execute an instruction for prompting a user to enter a passkey only once. The processor is also configured to execute an instruction which references the memory of the portable electronic device to determine if there is at least one peripheral device that is in wireless communication with the portable electronic device that is original. The processor is configured to execute an instruction for pairing the at least one peripheral device that is original together with the portable electronic device.

Abstract: An illumination device is disclosed, and includes a first housing defining an interior cavity and an aperture, at least one lighting element, and a driver board electrically coupled to the lighting element. The driver board includes an antenna element. The driver board is positioned at least in part within the interior cavity of the first housing. The aperture of the first housing is positioned so as to create a pathway such that radio frequency (RF) signals reach the interior cavity of the first housing.

Abstract: A driver circuit for delivering a generally constant voltage to a load is disclosed. The driver circuit includes a source of incoming AC power, a rectifier, and a constant voltage driver. The rectifier is connected to the source of incoming AC power and produces a DC voltage. The constant voltage driver receives the DC voltage from the rectifier. The constant voltage driver includes a selectively activated switching element for receiving the DC voltage, a controller, and an output line. The controller receives the DC voltage and is configured to send a drive signal to the switching element in order to activate the switching element. The output line provides the generally constant voltage to the load.