Abstract: A power converter is capable to convert an electrical input power into a bipolar output power and to deliver the bipolar output power to at least two independent plasma processing chambers. The power converter includes: a power input port for connection to an electrical power delivering grid, at least two power output ports each for connection to one of the plasma processing chambers, and a controller configured to control delivering the bipolar output power to the power output ports, using at least one control parameter. The controller is configured to obtain a full set of desired values for the control parameter for the power output ports, calculate whether the power converter is capable of delivering every desired value to every output port, and if so, calculate a sequence of pulses of power delivery to the output ports to supply the power to plasma processes in the plasma processing chambers.

Abstract: The invention relates to a method for installing an executable computer program in an illumination system having a plurality of illumination devices which are controlled by means of a particular computer unit and have a lighting device and a transmitting device arranged in or directly on the lighting device, wherein the transmitting device wirelessly emits a signal having an item of identification information specific to the transmitting device, in which: data corresponding to the computer program to be installed are provided by a data source, the data are transmitted to the illumination devices and the computer program is automatically installed in the respective computer units of the illumination devices on the basis of the transmitted data, wherein a first of the illumination devices receives the data via a communication link, and in order to install the computer program in at least one second of the illumination devices, the first of the illumination devices transmits the data to the at least one second o

Abstract: The control device for the luminaire of a vehicle has an operating power input (401) for receiving operating power, an illumination output (402) for supplying illumination power to one or more light sources (403), and a power converter (404) coupled between said operating power input (401) and said illumination output (402) for converting received operating power into illumination power, which is directed outside. The power converter (404) has a control connection (405). The control device has a control data connection (406) for transmitting control data, and a controller circuit (407) coupled between said control data connection (406) and said control connection (405). The control device has a control power input (408) separate from said operating power input (401) for receiving control power to said controller circuit (407) independently of said operating power, as well as a galvanic isolation (409) between said control circuit (407) and said power converter (407).

Abstract: A system for generating a light pulse causes fluorescence in an object. The system includes a light emitting diode (“LED”) light source to emit light onto the object. The light source has an operational radiant flux. The system also includes an imaging sensor to sense light emitted due to fluorescence in the object. The system further includes a controller electrically coupled to the light source. The controller is able to drive the light source to produce a pulse of light at a pulse radiant flux. The controller is also able to inhibit the light source after the pulse for a darkness period. The pulse radiant flux of the light produced by the light source is higher than the operational radiant flux of the light source.

Abstract: A cloud connected lighting system may include a wireless lighting network of coordinated lighting devices and a bridge to provide connectivity to external devices such as a cell phone, home automation system or security system. The cloud connected lighting system may be implemented locally with a cell phone communicating with the bridge for control, status and alerts. The cloud connected lighting system may operate over the cloud via an Internet connection allowing the bridge to communicate with a server on the Internet that may implement software for the interface with the wireless lighting network and to capture data regarding activity detected by motion sensor associated with the wireless lighting network.

Abstract: The present invention provides a plant cultivation system that is possible to continue stable irradiation of an appropriate amount of light regardless of the weather condition and the like while utilizing the sunlight. Further, the present invention provides a plant cultivation system that is possible to prevent the humans from being exposed to a visual stress when the humans approach the place where the light suited for growing the plants is irradiated. The present invention relates to a plant cultivation system, comprising: a light measure that measures an amount of photons of sunlight; a light controller that controls an amount of photons to be irradiated to a plant according to the measured amount of photons; and a light irradiator that irradiates light to the plant in the controlled amount of photons.

Abstract: A system includes at least one sensor; a plurality of lamps fixed relative to the sensor; at least one vehicle component attached to the lamps; and a computer communicatively coupled to the lamps, the at least one sensor, and the at least one vehicle component. The computer is programmed to sequentially activate the lamps, determine that an intensity for at least one of the lamps is below a respective intensity threshold based on data from the sensor during the sequential activations of the lamps, and actuate the at least one vehicle component in response to one of the intensities being below the respective intensity threshold.

Abstract: A light control system comprises a light control device and a sensor module configured to detect a motion pattern of a user's hand relative to the entranceway and a light control device. The light control device includes a housing, a proximity sensor configured to detect a position of a door in a vicinity of the entranceway, and a light controller disposed in the housing and communicated with the sensor module and the proximity sensor. The light controller is configured to control the light strip in response to a detected position of the door by the proximity sensor; and control the light strip in response to the motion pattern detected by the sensor module when the door is not detected at a preset opening position or no door is present at the entranceway.

Abstract: Disclosed an LED driving controller and a driving circuit. The LED driving controller comprises: a power transistor having a control terminal for receiving a switching control signal, a first terminal and a second terminal; zero-crossing detection circuit for generating a zero-crossing detection signal; a first comparison circuit, configured to compare a reference voltage with a sampling voltage to generate a first control signal; a control circuit being coupled to the zero-crossing detection circuit and the comparison circuit and configured to generate a switching control signal in accordance with the zero-crossing detection signal and the first control signal; an overvoltage protection circuit configured to generate an overvoltage protection signal in accordance with an off-time provided by the control circuit and a reference voltage; a shielding circuit configured to shield the overvoltage protection signal is provided.

Abstract: This disclosure includes systems, methods, and techniques for controlling a plurality of light-emitting diodes (LEDs). For example, a circuit includes a switching device, where the switching device is electrically connected to an LED of the plurality of LEDs, and where the switching device is configured to control whether the LED receives an electrical signal from a power source. Additionally, the circuit includes processing circuitry configured to determine that the LED is associated with a bright failure condition by attempting to prevent the LED from receiving the electrical signal from the power source using the switching device and disable the LED in response to detecting the bright failure condition.

Abstract: A discharge lamp includes a discharge tube containing electrodes, and base sections. The base sections have terminals for connecting to external power lines, and internal power lines for connecting the terminals to the electrodes within the discharge tube. Information generation devices that generates information to be output to outside are provided within the base sections. Superimposition circuits that superpose the information, generated by the information generation devices, on the internal power lines within the base sections are also provided within the base sections. The information generation devices include sensors and generate information based on output of the sensors. A receiving circuit extracts and receives the information, superposed on the internal power lines, from the external power lines connected to the internal power lines. Thus, information generated on the discharge lamp side can be transmitted to outside with a simple construction.

Abstract: Systems, software, and methods are provided for efficient, dynamic lighting control. In an embodiment, a two-channel LED lighting system is dynamically controlled to emulate dimming of an incandescent fixture. In an example, a lighting fixture may include red, green, blue, and white emitting LED modules. The lighting fixture may be controlled such that it produces generally white light from about 2150K candle light color to 5500K daylight white color with only 4 LEDs. Furthermore, the white LED may be controlled such that the white LED CRI is approximately 95 to ensure optimal results when mixed with red and green. In another embodiment, a dynamic two-channel LED lighting system is controlled to emulate dimming of an incandescent fixture. Specific dimming protocol can allow for efficient dimming which helps minimize the height of a linear light fixture and maintain diffusion with multiple colored point sources at minimal pitch.

Abstract: A notification appliance is disclosed that includes a light engine for generating light flashes at a predetermined interval, an energy store for supplying energy to the light engine to generate the light flashes at the predetermined intervals and a charge controller for charging the energy store to a full charge level required to generate the light flashes. The charge controller controlling an input current to charge the energy store to reach the full charge level at the predetermined interval.

Abstract: A power management system for a lighting circuit may include a grid shifting controller that includes a processor and a connection to an external power source. The power management system may also include a communication interface associated with the grid shifting controller. The grid shifting controller may be configured to provide control information to a processor of at least one grid shifting electrical fixture over the communication interface, the control information being configured to direct the at least one grid shifting electrical fixture on the use of power from the external power source and an energy storage device associated with the at least one grid shifting electrical fixture.

Abstract: The first set of light emitting diode modules include multiple first type light emitting diode units. The first type fluorescent powder covers on the surface of multiple first type light emitting diode units. The second set of light emitting diode modules include multiple second type light emitting diode units and accessory electronic units. The second type fluorescent powder covers on the surface of multiple second type light emitting diode units. The driver circuit transfers the electricity to the first light emitting diode modules and the second light emitting diode modules to make the first light emitting diode unit and the second light emitting diode unit lighting. Moreover, the accessory electronic unit may affect the relative proportion current between the first set of light emitting diode modules and the second set of light emitting diode modules when the driver circuit supplies the different total current value.

Abstract: Systems and methods for controlling transitions in a lighting system based on a lighting graph. The system includes a light fixture, a controller, and a memory. The controller stores three or more lighting states and associates each with a respective lighting parameter for controlling the light fixture. Multiple input state transition paths and multiple output state transition paths are associated with each lighting state. The controller receives an input signal and determines an output state transition path that indicates a second lighting state of the three or more lighting states. The determination of the transition path is based on a condition or is unconditional. A light control signal is transmitted to the light fixture based on the respective lighting parameter associated with the second lighting state. A lighting state includes all of the parameters to execute the state, or parameters that define a difference from a prior lighting state.

Abstract: A negative ion-based beam injector comprising a negative ion source and an accelerator. The ions produced by the ion source are pre-accelerated before injection into a high energy accelerator by an electrostatic multi-aperture grid pre-accelerator, which is used to extract ion beams from the plasma and accelerate to some fraction of the required beam energy. The beam from the ion source passes through a pair of deflecting magnets, which enable the beam to shift off axis before entering the high energy accelerator. The negative ion-based beam injector can be combined with a neutralizer to produce about a 5 MW neutral beam with energy of about 0.50 to 1.0 MeV. After acceleration to full energy, the beam enters the neutralizer where it is partially converted into a neutral beam. The remaining ion species are separated by a magnet and directed into electrostatic energy converters. The neutral beam passes through a gate valve and enters a plasma chamber.

Abstract: A lighting device and a lighting system, respectively, are to be able to be more comfortably monitored. Thereto, a lighting device with an illuminant, a transmitting device arranged in or at the illuminant for wirelessly transmitting a locating signal to a terminal external with respect to the lighting device is proposed. Moreover, the lighting device comprises a data processing device arranged in or at the illuminant for extracting illuminant data about the illuminant and for providing this data for the transmitting device. The transmitting device is formed to also transmit the illuminant data to the external terminal besides the locating signal.

Abstract: A technique for commissioning of a light source includes transmitting outgoing beacon signals, each outgoing beacon signal including a stored light source identifier that uniquely identifies the light source; receiving incoming beacon signals including an incoming beacon signal carrying an incoming light source identifier that corresponds to the stored light source identifier; receiving subsequent incoming beacon signal carrying the incoming light source identifier; and changing commissioning information in response to receiving the subsequent incoming beacon signal carrying the incoming light source identifier.

Abstract: A flashing lamp includes: an LED module and a light distribution unit disposed inside a housing, the light distribution unit is disposed on a light emission side of the LED module, and a light transmissive cover is disposed over an opening of the housing. The LED module includes: a plurality of LED rows; and an adjusting unit that adjusts flashing of the plurality of LED rows on a row-by-row basis. The plurality of LED rows are mounted on one surface of an LED-mounting board, each of the plurality of LED rows has a plurality of LEDs electrically connected on a row-by-row basis. When at least one LED row fails to illuminate, the adjusting unit extends a flashing time of each LED of the remaining LED rows to maintain a luminous intensity of the entire plurality of LED rows within a predetermined range.