Abstract: The various implementations described herein include methods, devices, and systems for calibrating LED(s). In one aspect, an electronic device includes: (1) a plurality of light emitting diodes (LEDs); (2) one or more processors; and (3) memory storing a plurality of color correction matrices, each color correction matrix of the plurality of color correction matrices: (a) corresponding to an LED of the plurality of LEDs, (b) generated based on a desired color value for the corresponding LED, and (c) scaled to prevent overrange of color values for the corresponding LED; and the memory includes instructions for operating the plurality of LEDs in accordance with the stored plurality of color correction matrices.

Abstract: A light emitting element driving semiconductor integrated circuit constitutes at least a part of a light emitting element driving device arranged to drive a series connection unit including a plurality of light emitting elements. The light emitting element driving semiconductor integrated circuit includes a single-element short-circuit detection unit arranged to detect that one of the plurality of light emitting elements is short-circuited, and a control unit arranged to control a power element of the light emitting element driving device so that current supplied from the light emitting element driving device to the series connection unit is increased, when the single-element short-circuit detection circuit detects that one of the plurality of light emitting elements is short-circuited.

Abstract: A luminaire for identifying a lamp shade is disclosed. The luminaire comprises a light source (102), a lamp shade (104) and a second luminaire component (108). The lamp shade (104) comprises at least one surface feature (106) which comprises an identifier, the identifier being representative of at least one characteristic of the lamp shade (104). The second luminaire component (108) comprises a detector (110) arranged for detecting the at least (5) one surface feature (106) of the lamp shade (104). The second luminaire component (108) further comprises a first processor (112) arranged for retrieving the identifier from the detected at least one surface feature (106), and for identifying the at least one characteristic of the lamp shade (104) based on the retrieved identifier.

Abstract: A controller (100) for creating a dynamic light effect and controlling a lighting device (120) according to the dynamic light effect, the controller comprising: a user interface (104) for receiving user input, a display unit (108), a processor (106) for rendering, on the display unit (108), a graphical representation of the lighting device in an area of an image at a first position, the first position being associated with first color information, and for setting, upon receiving a first user input via the user interface (104), the graphical representation in a first state, wherein the graphical representation moves across the area of the image from the first position to a plurality of subsequent positions over a period of time, the plurality of subsequent positions being associated with subsequent color information, and for generating one or more lighting control commands (110) based on the first color information and the subsequent color information, and a communication unit (102) for communicating the ge

Abstract: A single input to a lighting system may control several different light fixtures. Multiple light fixtures may be connected to a switch or controller of the lighting system. A user makes an input to the lighting system, and individual light fixtures are activated as the user continues making the input.

Abstract: A controller 100 for controlling a light source 110 is disclosed. The controller 100 comprises a communication unit 102 for communicating with the light source 100. The controller 100 further comprises an input unit 104 for receiving a first input indicative of a selection of a first color in a first image, and for receiving a second input indicative of a selection of a second color in a second image. The controller 100 further comprises a processor 106 for morphing the first image into the second image after the first and second user input have been received, whereby at least one intermediate image in between the first image and the second image is generated, the at least one intermediate image being a mixture of the first image and the second image, and for determining at least one intermediate color based on color information of the at least one intermediate image.

Abstract: A lighting device includes a light emitting module, a driver, a wireless communication module, and a signal converter. The light emitting module includes light emitting elements and an antenna pattern. The light emitting elements are mounted on a first surface of a circuit board. The antenna pattern is in the first surface or a second surface of the circuit board. The driver sets current applied to the light emitting elements based on control data including current setting information. The control data is wirelessly received through the antenna pattern from an external user terminal. The light emitting module includes a wireless communication module directly connected to the antenna pattern to receive the control data, and a signal converter to convert the control data to a control signal and provide the control signal to the driver.

Abstract: Various embodiments of a smart LED lighting system are described. The system includes a control module coupled over a wireless connection to one or more smart LED drivers, each of which controls one or more LED lighting units. The system optionally includes one or more sensors for gathering information from the surrounding environment and a gateway for establishing a wireless network and for communicating with one or more cloud computing systems. The control module can control individual lighting units, modules of individual lighting units, or zones of modules to alter the intensity, color, or character of the lighting. The control module can execute pre-programmed configurations of the lighting system to implement, for example, lighting that mimics circadian patterns or lighting that is suited for a particular event such as a meeting or a concert. The control module also can implement instructions provided by a user through a mobile device or other input device.

Abstract: In a lighting package, a printed circuit board supports at least one light emitting die. A light transmissive cover is disposed over the at least one light emitting die. A phosphor is disposed on or inside of the light transmissive dome-shaped cover. The phosphor outputs converted light responsive to irradiation by the at least one light emitting die. An encapsulant substantially fills an interior volume defined by the light-transmissive cover and the printed circuit board.

Abstract: An enclosure for an antenna comprises a gang junction box configured to be flush mounted to a wall, the gang box including first and second sidewalls opposite to each other; a removable cover attached to the gang junction box, the cover being transparent to electromagnetic radiation; a base for supporting an antenna, the base being disposed inside the gang box; the base including an axis of rotation at an upper portion, the base is pivotably attached at the upper portion along the axis to the first and second sidewalls; and the base is lockable to the first and second sidewalls after the base is pivoted to a desired orientation.

Abstract: The invention relates to an assembly which consists of control gear for lamps and an electric circuit, said control gear comprising at least one energy transmission element, for example a transformer. The electric circuit has an inductive coupling element arranged in a stray magnetic field of the energy transmission element. The electric circuit comprises a voltage supply unit designed to produce a supply voltage for the electric circuit from energy absorbed from the stray magnetic or electromagnetic field of the energy transmission element.

Abstract: A light string controlling circuit for single node and a method thereof are provided. The light string controlling circuit for single node includes a plurality of light-emitting elements, a power source element, a master controller and a plurality of single-node controllers. The master controller outputs a power supplying request to the power source element to instruct the power source element to supply power to the plurality of light-emitting elements sequentially. The plurality of single-node controllers are connected to the plurality of light-emitting assemblies respectively, and each of the single-node controllers outputs an emission control signal to control the luminous state of the corresponding light-emitting assemblies.

Abstract: An improved controller used in connection with pool area and surrounding landscaping low voltage lighting and related low voltage subcomponents, such as lighting, fountains, waterfalls, deck jets, and music or related entertainment devices, incorporates an independently-addressable light control relay, or analogous electronic component, and is implementable as a retrofit replacement for existing controller systems or, alternatively, as a complete new unit for controlling low voltage subcomponents.

Abstract: Location-Based Addressing (LBA) is a method of controlling and commissioning networked lighting devices. The lighting devices communicate over a wireless network using radio frequency communication protocols. The lighting devices are commissioned or grouped based on their 5 respective locations in a building floor plan or a building architecture. The lighting devices are commissioned to respond to radio frequency communications that correspond to their respective locations. This imposed location-based architecture reduces the amount of transmitted data required to control the lighting devices and, thus, reduces the radio bandwidth required to control the lighting devices. In other words, controlling devices “multicast” instructions and controlled devices “listen” for instructions and act only upon instructions that correspond to their respective location. Hand shaking or two-way communication between the controlling devices and the controlled devices is not required.

Abstract: A method for controlling an object space having an associated object environment includes the steps of, defining a target set of coordinates in the object space, recognizing the presence of a predetermined object in the object space, and determining a coordinate location of the recognized predetermined object in the object space. The method further includes determining the spatial relationship between the recognized predetermined object and the target set of coordinates, comparing the spatial relationship with predetermined spatial relationship criteria, and if the determined spatial relationship criteria falls within the predetermined spatial relationship criteria, modifying the object space environment.

Abstract: The invention relates to a control system for a lighting system comprising at least one control adapter having a digital interface for connection to an assigned digital control bus, to which a plurality of light-technology operating components such as control gear, ballast devices, sensor units, and/or switch units are connectable as bus users by means of a respective digital interface, wherein the at least one control adapter furthermore has a controller and a wireless interface for data coupling of the control adapter to a wireless network terminal.

Abstract: An LED control system is provided for connection to an LED lighting system via a power line to control the LED lighting system using commands formed by manipulation of frequency and amplitude of a signal transmitted over the power line. The signal may be for example a wave or a sequence of pulses. The signal may be provided in superposition with line power or the line power may be formed as the signal.

Abstract: An example of a lighting system includes intelligent lighting devices, each of which includes a light source, a communication interface and a processor coupled to control the light source. In such a system, at least one of the lighting devices includes a user input sensor to detect user activity related to user inputs without requiring physical contact of the user; and at least one of the lighting devices includes an output component to provide information output to the user. One or more of the processors in the intelligent lighting devices are further configured to process user inputs detected by the user input sensor, control lighting and control output to a user via the output component so as to implement an interactive user interface for the system, for example, to facilitate user control of lighting operations of the system and/or to act as a user interface portal for other services.

Abstract: A visible light sensor may be configured to sense environmental characteristics of a space using an image of the space. The visible light sensor may be controlled in one or more modes, including a daylight glare sensor mode, a daylighting sensor mode, a color sensor mode, and/or an occupancy/vacancy sensor mode. In the daylight glare sensor mode, the visible light sensor may be configured to decrease or eliminate glare within a space. In the daylighting sensor mode and the color sensor mode, the visible light sensor may be configured to provide a preferred amount of light and color temperature, respectively, within the space. In the occupancy/vacancy sensor mode, the visible light sensor may be configured to detect an occupancy/vacancy condition within the space and adjust one or more control devices according to the occupation or vacancy of the space. The visible light sensor may be configured to protect the privacy of users within the space via software, a removable module, and/or a special sensor.

Abstract: Implementations generally relate to systems, apparatuses, and methods for a residential sensor device platform. In some implementations, a system includes a plurality of sensor devices. Each of the plurality of sensor devices includes a first transceiver operative to support uplink communication with a wireless router, a second transceiver operative to support mesh link communication with other sensor devices of the plurality of sensor devices, an electrical control, a sensor operative to sense a condition of a living space, and a processor. The processor is operative to communicate with the wireless router, communicate with the other sensor devices of the plurality of sensor devices, and receive the sensed condition of the living space.

Abstract: A lighting fixture includes a light source, a housing coupled to the light source, communications circuitry, and control circuitry. The housing includes an opening through which light from the light source is provided. The control circuitry includes a memory storing instructions, which, when executed by the control circuitry cause the lighting fixture to adjust one or more light output parameters of the light source, and store fixture location information describing a location of the lighting fixture in response to receipt of the fixture location information from the communications circuitry. By storing fixture location information describing the location of the lighting fixture, the location of the lighting fixture may be used to send messages to lighting fixtures in the same location and/or retrieve data from lighting fixtures in the same location, which may be beneficial in many circumstances.

Abstract: A distributed low voltage power system can include a primary power source that distributes line voltage power during a first mode of operation and fails to distribute the line voltage power during a second mode of operation. The system can also include a secondary power supply coupled to the primary power source, where the secondary power supply includes a controller and an energy storage device. The system can further include a power distribution module (PDM) coupled to the primary power source and the secondary power supply, where the PDM includes a first power transfer device and a first output channel. The system can also include at least one first LV device coupled to the first output channel of the PDM, where the at least one first LV device operates using a reserve LV signal based on the reserve signal during the second mode of operation.

Abstract: Techniques for employing an enhanced light device to determine desirable information to a user are presented. Such light device(s) can comprise or be associated with a light management component (LMC) that can employ sensors to monitor respective characteristics or conditions of a device, an environment, and/or a user to determine respective contexts for the device, environment, or user, wherein the user can interact with or be in proximity to the device or environment. The light device(s) collects data, including sensor data, relating to the device or environment from the device, the environment, or other data sources. The LMC determines a desirable subset of information to present to the user based on the respective contexts. The LMC facilitates presenting the desirable subset of information to the user via the light device or a communication device of the user that is communicatively connected to the light device.

Abstract: A voltage/current regulator supplying controlled current with PVT headroom adjustment. In an example application, an LED backlight driver controls ILED string current, and controls a voltage regulator supplying VOUT string voltage with sufficient headroom voltage VHDRM to supply the ILED string current. The LED driver controls ILED string current with an MLED current control transistor, including gate drive referenced to a reference voltage VREF. VOUT/VHDRM are adjusted for PVT operating conditions by generating a replica/reference current ILED/RATIO (proportional to ILED string current) with a replica current control transistor MLED/RATIO based on VREF. ILED/RATIO is mirrored to a second replica MLED/RATIO transistor that saturates at a PVT_REF reference voltage corresponding to a minimum voltage that can supply the required ILED current (as represented by the ILED/RATIO replica/reference current), accounting for PVT operating conditions.

Abstract: A circuit arrangement for operating a plurality of lighting devices having: a first control component, which is connected to a first lighting device or is formed integrally with a first lighting device; at least one second control component, which is connected to a second lighting device or is formed integrally with a second lighting device; at least one main control device, which is connected to the first and to the second control component and is configured to supply the control components with an operating voltage; and at least one data communications line, which is connected to the two control components and to the main control device. The main control device is is able to transmit a first position coding signal for the position coding of the first control component and at least one second position coding signal for the position coding of the second control component.

Abstract: An LED fixture includes at least one LED; an electrical power terminal, electrically connected to the LED, the electrical power terminal for electrically connecting the LED to an LED driver, a storage device for storing data in relation to the LED, and a data processing device, electrically connected to the storage device for storing data in the storage device and reading data therefrom, the data processing device being arranged and connected for providing data communication via at least one of the electrical power terminal and the LED.

Abstract: A device for thermal protection is described. The device may be configured to determine current temperature information for a set of light emitting diodes (LEDs), receive an indication of a requested light pattern for the set of LEDs, and determine predicted temperature information for the set of LEDs based on the current temperature information and the requested light pattern. In this example, the device is further configured to operate the set of LEDs at a modified light pattern that is different from the requested light pattern in response to determining that the predicted temperature information indicates that the set of LEDs operates at an unsafe temperature when operating at the requested light pattern.

Abstract: A lighting control device is provided which includes a microcontroller, at least one wireless transceiver, at least one dimmer, one or more lighting terminals powered by the at least one dimmer, at least one environmental sensor, and at least one input device. In operation, the microcontroller obtains environmental data from the at least one environmental sensor, obtains input data from the at least one input device, transmits the environmental data and the input data to an external server, obtains a lighting operating schedule based on the environmental data and the input data from the external server, and executes the lighting operating schedule from the external server by controlling one or more smart bulbs via the at least one wireless transceiver and controlling the electrical current output to lighting terminals.

Abstract: Parameters of a display may be adjusted in response to accessing a time value corresponding to an electronic device that includes the display. A brightness value of the display may be adjusted based on the time value to maintain a display characteristic value within a predefined range and below a threshold. The display characteristic value may be independently controllable by one of the brightness or the color temperature of the display. A set of red green blue (RGB) color values of the display may be adjusted independent of the adjustment to the brightness value to maintain the display characteristic value within the predefined range and below the threshold while maintaining the brightness value of the display. In some examples, the RGB color values of the display may be adjusted at approximately the same time as the adjustment of the set of RGB color values of the display is performed.

Abstract: A master lighting fixture and a satellite lighting fixture can each include an LED board including multiple LEDs that can emit visible light. A power supply and a LED regulator can be connected to the LED board in the master lighting fixture to provide power to operate the LED board. The LED board in the master lighting fixture can be connected to the LED board in the satellite lighting fixture to form a circuit to allow the power provided by the LED driver to be transmitted to the LED board in the satellite lighting fixture. A defect in the LED board in the master lighting fixture or the satellite lighting fixture can open the circuit, which can prevent power from being transmitted through the LED boards to enhance the performance of LEDs in the LED boards or reduce a risk of damage that can be caused by the LED boards.

Abstract: Systems, methods, apparatus, and machine-readable media are provided to facilitate lighting device health management. Conditions of at least a portion of an electric light assembly may be monitored with a monitor adapted to be disposed in the electric light assembly. The electric light assembly may include an electric light source and a receptacle adapted to receive the electric light source. Based on the monitoring, data recordings corresponding to operations of the electric light assembly over a period of time may be stored. Reporting data may be created based on the stored data recordings. A communication may be wirelessly transmitted with the monitor toward a system controller that is remote from the electric light assembly. The communication may include the reporting data. The monitor may correspond to the electric light source or a receptacle adapted to receive the electric light source.

Abstract: Example embodiments of the invention efficiently organize, control and prioritize a distributed lighting network. A mesh lighting network is organized from the bottom up into groups of lighting devices with control signal repeaters fanning out control signals to each group. Each lighting device is capable of forwarding control signals to additional lighting devices. During build-out of the mesh network, as new lighting devices are installed, the control network automatically selects a device whose repeater function will provide the most reliable and efficient distribution of control signals to the new group of devices being installed.

Abstract: A lighting system includes a control unit for controlling brightness level of a light source based on a photosensor output signal and a motion sensor output signal. The control unit may increase the brightness level of the light source as ambient light level decreases, or decreases the brightness level as the ambient light level increases. The control unit may also increase the brightness level to a maximum brightness level when motion is detected.

Abstract: A method for configuring an electronic element (e.g., a ballast) in a lighting system prior to powering up the lighting system uses a wireless communication interface in the electronic element based on near field communication or radio frequency identification communication. An external configuring device, such as a programmed smartphone or tablet, is equipped with a wireless communication module and transmits configuration data to the wireless communication interface which in turn writes the data to memory in the electronic element without power being supplied to the electronic element. The control for the electronic element reads the configuration when it is powered up.

Abstract: An LED driving apparatus group in which first and second LED groups are connected in series is provided. The apparatus includes a voltage input unit that receives an input voltage from a vehicle power device and a current controller that generates a current with a predetermined level by adjusting the received input voltage and provides the current to an input terminal of the first LED group. A first feedback path feeds back a voltage applied to a first node, which is connected to an output terminal of the first LED group, to an input terminal of the current controller. A first switching unit is disposed on the first feedback path and is switched on or off based on a control signal. A second switching unit is disposed between an output terminal of the second LED group and ground and is switched on or off based on the control signal.

Abstract: An illumination system and method is provided for readily mapping a plurality of scenes along a dimcurve form a natural show for one or more groups of LED illumination devices. Mapping can be performed using a graphical user interface on a remote controller wirelessly linked to the illumination devices. A keypad is preferably configured for button control of changes to color temperature as a function of brightness along each of the various dimcurves for each of the various groups of illumination devices controlled by a corresponding keypad to allow momentary or persistent override and reprogram of the natural show. Modification to a scene further comprises modifications to scenes before and after the currently modified scene to provide a smoothing dimcurve modification. Global keypad can be used to control multiple zones arranged throughout a structure to switch between a natural show that emulates outdoor sunlight conditions to a panic show when an intruder is detected.

Abstract: Devices, systems, and methods to predict a half-life or end of life for luminaire drivers are described. The drivers may include electronic drivers for light fixtures such as dimming controls that utilize electrolytic capacitors in the output circuit to smooth the output current and reduce changes in current amplitude. Half-life and end of life for the drivers may be predicted by monitoring failure variable indications of the driver and the luminaire light, including the light intensity depreciation of the light, and by evaluating the data from both the driver, light, and environment in which the driver and/or luminaire is installed to predict the most imminent half-life and/or end of life.

Abstract: Provided is a lighting system which includes: luminaires; a controller which manages the luminaires; and interfaces which relay communication between the luminaires and the controller, and groups the luminaires into groups. The interface has one or more ports to each of which corresponding one or more of the luminaires are connected. The controller receives a selection of one of a first option for grouping, into a group, one or more sets of luminaires connected respectively to one or more interfaces included in the interfaces or a second option for grouping, into a group, one or more sets of luminaires connected respectively to one or more ports included in the plurality of ports of the interfaces. The controller determines that the grouping is performed according to the one of the first and second options selected in the receiving; and displays information indicating a result of the grouping on a display.

Abstract: A voltage control system for an LED operates to dynamically determine and set a minimum permissible voltage on an energy storage device such as a capacitor such that the energy storage device operates at a minimum possible voltage to compensate for component variations and dimming signal variations while maintaining flicker-free operation of the LED.

Abstract: A lighting control system includes a device controller containing control circuitry that is configured to control drive currents delivered to a plurality of light emitting diodes (LEDs) of a lighting device. The control circuitry generates commands to compensate for failed LEDs in the plurality of LEDs by controlling drive currents delivered to a group of LEDs so that the illuminance level of light detected by an illuminance sensor will not substantially change because of the failed LED, if the voltage across the group of LEDs is less than the threshold amount. The control circuitry also controls the plurality of LEDs in response to data received from a sensor configured to measure a characteristic value of light received from the lighting device, by controlling drive currents delivered to the LEDs if the detected characteristic value of light from the lighting device has moved above or below a threshold.

Abstract: An LED lifestyle lighting solution using microcontroller technology to control LED load for managing nighttime illumination is disclosed, wherein the nighttime illumination is divided into a first stage being a high power illumination for a preset time period and a second stage being an energy saving/security illumination. The time period of the first stage high power illumination is managed by a virtual timer which is programmable and dynamically variable according to a user's living habits and needs. The second stage energy saving illumination having four options is produced by adequate combinations of LED load dimming and motion sensor operation. The LED characterized by a limited working voltage range, namely, Vth<V<Vmax, makes the LED lifestyle lighting technology completely different from the technology of conventional lighting sources. The present invention provides possibility to choose among different working modes integrated in a single LED lighting device.

Abstract: A method includes retrieving a current lighting state of at least one luminaire. The lighting state includes light intensity of the at least one luminaire. The method also includes retrieving a sensor state of at least one sensor and determining a next selectable lighting state available for the at least one luminaire and an illumination adjustment for a user interface element of a lighting control device configured to control the luminaire. The determining of the next selectable lighting state available includes comparing the current lighting state and the sensor state to a set of intelligent backlighting rules, and based on the comparison, determining an indicator state corresponding to the illumination adjustment to the user interface element of the lighting control device. The illumination adjustment produces visible output to the user via the user interface element as a visible cue to guide the user to select the next lighting state.

Abstract: Apparatus and associated methods relate to a curtain configured decorative lighting system. The curtain configuration of decorative light stings is obtained by using light-string distribution elements, each of which receives an input signal by a conductive lead. The input signal is indicative of a plurality of lighting commands. The light-string distribution element then provides an output signal to a tap connector, to which a decorative light string can be connected. The provided output signal is indicative of lighting commands corresponding to a plurality of lighting elements distributed along the decorative light string connected thereto. The plurality of lighting elements of the attached decorative light string each illuminate in response to one of the lighting commands indicated by the output signal. In some embodiments, the decorative light string provides to the tap connector a signal indicative of lighting commands that do not correspond to lighting elements of that decorative light string.

Abstract: An LED display module, a display apparatus, and a method for controlling the LED display module and the display apparatus are provided. The LED display module includes a plurality of first LEDs arranged in a first line and a plurality of second LEDs arranged in a second line; a plurality of source interfaces, each of which is commonly connected to an anode of a corresponding one of the plurality of first LEDs and a cathode of a corresponding one of the plurality of second LEDs arranged in the same column as the corresponding one of the plurality of first LEDs; and a gate interface commonly connected to a cathode of each of the plurality of the first LEDs and an anode of each of the plurality of the second LEDs.

Abstract: An LED display module, a display apparatus, and a method for controlling the LED display module and the display apparatus are provided. The LED display module includes a plurality of first LEDs arranged in a first line and a plurality of second LEDs arranged in a second line; a plurality of source interfaces, each of which is commonly connected to an anode of a corresponding one of the plurality of first LEDs and a cathode of a corresponding one of the plurality of second LEDs arranged in the same column as the corresponding one of the plurality of first LEDs; and a gate interface commonly connected to a cathode of each of the plurality of the first LEDs and an anode of each of the plurality of the second LEDs.

Abstract: An LED driver circuit compatible with a ballast includes an input circuit, a rectifier and filter circuit, a DC/DC converter circuit, an output circuit, and an LED load circuit, which are sequentially coupled. The input circuit includes buffer capacitors CX1, CX2, and CX3; bleeder resistor strings RX1, RX2, and RX3; and insurance resistors F1, F2, and F3. The input circuit includes a plurality of input terminals and a plurality of output terminals. Each of the output terminals of the input circuit is coupled to other output terminals through the bleeder resistor strings RX1, RX2, and RX3, respectively. The LED driver circuit further includes an IC start-up circuit coupled to the rectifier and filter circuit, and a PWM controller circuit coupled to the DC/DC converter circuit.

Abstract: Location-Based Addressing (LBA) is a method of controlling and commissioning networked lighting devices. The lighting devices communicate over a wireless network using radio frequency communication protocols. The lighting devices are commissioned or grouped based on their 5 respective locations in a building floor plan or a building architecture. The lighting devices are commissioned to respond to radio frequency communications that correspond to their respective locations. This imposed location-based architecture reduces the amount of transmitted data required to control the lighting devices and, thus, reduces the radio bandwidth required to control the lighting devices. In other words, controlling devices “multicast” instructions and controlled devices “listen” for instructions and act only upon instructions that correspond to their respective location. Hand shaking or two-way communication between the controlling devices and the controlled devices is not required.

Abstract: A device includes a transceiver configured to communicate over a communication network according to Digital Multiplex (DMX) protocol; a memory device; and a microcontroller configured to process server data stored in the memory device into one or more Internet Protocol packets and to provide the one or more Internet Protocol packets to the transceiver for communication of the server data over the communication network according to the DMX protocol.

Abstract: Control apparatus and system for controlling an output of a constant current driver are disclosed. A control apparatus is coupled between a constant current driver and a load, such as a lighting module, in order to add functionality to the overall system. The control apparatus is powered by the constant current driver and may control the dimming of the constant current driver by controlling the 0-10V dim input into the driver. The control apparatus may comprise one or more switching elements between the constant current driver and the load to allow for mixing of groups of LEDs of various colors or color temperatures. The control apparatus may include a buffer load to mitigate negative impacts of turning on the lighting module after a period of deactivation. The control apparatus can also be adapted to operate as a dim-to-warm module within a lighting apparatus.

Abstract: An enclosed lighting unit for use with light strips is provided to enable installation of architectural lighting. The lighting unit has cooperating base and cover which are assembled by hand. The unit encloses a channel supporting the light strips which maintain a clearance distance between the light sources and the cover.