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: To allow better quality rendering of video on any display, a method is proposed of encoding, in addition to video data (VID), additional data (DD), wherein the additional data includes at least one change time instant (TMA_1) indicating a change in time of a characteristic luminance (CHRLUM) of the video data, which characteristic luminance summarizes a set of luminances of pixels in an image of the video data, the method: generates on the basis of the video data (VID) descriptive data (DED) regarding the characteristic luminance variation of the video, the descriptive data comprising at least one change time instant (TMA_1), and encodes and outputs the descriptive data (DED) as additional data (DD).

Abstract: A configuration system (100) for configuring a first device (130) in a lighting system is disclosed. The configuration system (100) comprises a memory (102) arranged for storing one or more light settings (110), which light settings (110) are defined by one or more light setting rules (112). The configuration system (100) further comprises a communication unit (104) arranged for communicating with the first device (130). The configuration system (100) further comprises a processor (106) arranged for identifying a device property (132) of the first device (130) based on information received from the first device (130) via the communication unit (104).

Abstract: To allow better quality rendering of video on any display, a method is proposed of encoding, in addition to video data (VID), additional data (DD) comprising at least one change time instant (TMA_1) indicating a change in time of a characteristic luminance (CHRLUM) of the video data, which characteristic luminance summarizes the set of luminances of pixels in an image of the video data, the method comprising: generating on the basis of the video data (VID) descriptive data (DED) regarding the characteristic luminance variation of the video, the descriptive data comprising at least one change time instant (TMA_1), and encoding and outputting the descriptive data (DED) as additional data (DD).

Abstract: Various inventive methods and apparatus disclosed herein relate to associating state machines with touch event profiles, and to initiating state machines in response to touch events detected at home appliances. In some embodiments, a touch event may be detected at a touch sensor associated with a home appliance (102, 102a). The home appliance may be operated to perform its primary function in response to the detected touch event. It may be determined whether the touch event satisfies a predetermined touch event profile. A state machine may be operated at a computing device (102a, 112, 330) remote from the home appliance in response to the determining.

Abstract: Disclosed is a lighting fixture (200) with a separately controllable set of LED-based light sources (102) configurable to create both downlighting and wall-washing lighting effects. To create the desired wall-washing effects, the intensity and angle of light sources in the lighting fixture are adjusted to individually illuminate different portions of the wall of surface. One set of LED-based light sources positioned along the edge of the ceiling tile is configured to emit a low intensity light beam toward the upper portion of the wall surface adjacent the ceiling. Another set of LED-based light sources emits a higher intensity light beam toward an intermediate portion of the wall surface. Another set of LED-based light sources emits an even higher intensity light beam toward the bottom portion of the wall surface.

Abstract: A lighting script—for use by a lighting controller to control at least one luminaire to render illumination effects, as the video content is outputted in a space illuminated by the at least one luminaire, synchronously with the outputting of the video content—is generated as follows. Frame image data of the video content is processed to determine at least one colour palette of the frame image data. A sequence of illumination effects—to be rendered during the outputting of the video content and which is modifiable by a user—is displayed to the user. The displayed sequence conveys at least one illumination colour derived from the determined colour palette to be rendered in at least one of the illumination effects. The generated lighting script is for rendering the modified sequence of illumination effects.

Abstract: Systems, methods, mobile computing devices and computer-readable media are described herein relating to light-based positioning. In various embodiments, light sources (106) may be commissioned to selectively energize one or more LEDs (520) to emit light carrying a coded light signal. The coded light signal may convey information about a location of a lighting effect (102) projected by the one or more LEDs onto a surface (104). In various embodiments, mobile computing devices (100) such as smart phones or tablets may detect these coded light signals from the lighting effects and/or from the light sources, extract the location information, and utilize it to determine their locations within an environment.

Abstract: Methods and apparatus related to a LED-based lighting unit (10; 110; 210; 310; 410) having a radar for presence detection. A radar circuit (140; 240; 340A; 340B; 440) may be electrically coupled to conductive wiring (25; 125; 225; 325; 425) of the LED-based lighting unit that at least selectively powers the radar circuit and at least selectively powers the LEDs. In some implementations, an antenna coupled to the radar circuit may be formed from the conductive wiring and optionally at least partially isolated from any current flowing through the LEDs.

Abstract: A control system 100 for controlling a lighting device 110 arranged for providing functional and/or atmosphere lighting is disclosed. The control system 100 comprises a detector 102 for detecting a presence of a portable device 120 at a wireless power transmitter 130 arranged for charging the portable device 120, a processor 104 for generating a lighting control command 108 when the presence of the portable device 120 has been detected, and a communication unit 106 for communicating the lighting control command 108 to the lighting device 110.

Abstract: Disclosed is a lighting fixture (200) with a separately controllable set of LED-based light sources (102) configurable to create both downlighting and wall-washing lighting effects. To create the desired wall-washing effects, the intensity and angle of light sources in the lighting fixture are adjusted to individually illuminate different portions of the wall of surface. One set of LED-based light sources positioned along the edge of the ceiling tile is configured to emit a low intensity light beam toward the upper portion of the wall surface adjacent the ceiling. Another set of LED-based light sources emits a higher intensity light beam toward an intermediate portion of the wall surface. Another set of LED-based light sources emits an even higher intensity light beam toward the bottom portion of the wall surface.

Abstract: Presented are concepts for controlling cove lighting. Once such concept provides cove lighting adapted to output decorative light for illuminating the ceiling of an architectural space. The cove lighting comprises a control unit adapted to individually control each of the primary light sources in response to a lighting control signal so that the output decorative light mimics an outdoor lighting condition.

Abstract: A luminaire (100) for controlling a light output of a lighting module (106) comprising at least one light source is disclosed. The luminaire (100) comprises a housing (102) and a plurality of connectors (104, 105) for interfacing with the lighting module (106). Each connector (104, 105) has a position defined by a location relative to the housing (102) and an orientation relative to the gravitational field, wherein at least two connectors (104, 105) have different orientations. The luminaire (100) further comprises a processor (108) for detecting the lighting module (106) at a connector (104) and for accessing information indicative of the position of the connector (104). The processor (108) is further arranged for identifying the lighting module (106) based on a signal received from the lighting module (106), and for controlling the light output of the lighting module (106) based on the identification of the lighting module (106) and the position of the connector (104).

Abstract: A recorder creating an encoded data stream comprising an encoded video stream and an encoded graphics stream, the video stream comprising an encoded 3D (three-dimensional) video object, and the graphics stream comprising at least a first encoded segment and a second encoded segment, the first segment comprising 2D (two-dimensional) graphics data and the second segment comprises a depth map for the 2D graphics data. A graphics decoder decoding the first and second encoded segments to form respective first and second decoded sequences. Outputting the first and second decoded sequences separately to a 3D display unit. The 3D display unit combining the first and second decoded sequences and rendering the combination as a 3D graphics image overlaying a 3D video image simultaneously rendered from a decoded 3D video object decoded from the encoded 3D video object.

Abstract: A method (200, 300) of controlling a luminaire (50) adapted to generate a light output (60) in a controllable direction with a user interface device (10) is disclosed. The method comprises determining (207) a relative orientation of the user interface device to the luminaire; receiving (219) a light output positioning instruction on a user interface (20) of the user interface device, said light output positioning instruction including directional information for the positioning of the light output in a specified location; converting (221) the light output positioning instruction by transforming the directional information based on the determined relative orientation; and transmitting (223) the converted light output positioning instruction to the luminaire. A computer program product, user interface device and lighting system employing this method are also disclosed.

Abstract: Systems, methods, mobile computing devices and computer-readable media are described herein relating to light-based positioning. In various embodiments, light sources (106) may be commissioned to selectively energize one or more LEDs to emit light carrying a coded light signal. The coded light signal may convey information about a location of a lighting effect (102) projected by the one or more LEDs onto a surface (104). In various embodiments, mobile computing devices (100) such as smart phones or tablets may detect these coded light signals from the lighting effects and/or from the light sources, extract the location information, and utilize it to determine their locations within an environment.

Abstract: Linear array of lighting nodes (3) which are connected at different respective positions along a flexible, rigid or malleable continuous supporting line (6). One or more attachable dividers (5) are provided, configured to be mechanically attachable by a user onto the line (6) without severing the line, or at least without completely severing the line, each attachable between a respective neighbouring pair of the lighting nodes (3). Each of the attachable dividers (5) is configured so as, when attached to the line (6), to enable detection of a position at which the divider (5) is connected along the line (6) relative to the lighting nodes (3), and configured to provide information related to said position to a controller (7), thus dividing the lighting nodes into different segments along the line. The controller (7) is configured to apply a different lighting effect to the illumination emitted by the lighting nodes (3) in each of some or all of the different segments.

Abstract: A device and method process graphics to be overlayed over video for three-dimensional display. The video includes a series of video frames updated at a video rate, including main video frames and additional video frames. A first buffer buffers a first part of the overlay information to be overlayed over the main video frames. A second buffer buffers a second part of the overlay information to be overlayed over the additional video frames. For each video frame, the first part of the overlay information or the second part of the overlay information is copied to a frame-accurate area copier. The first part of the overlay information or the second part of the overlay information is output according to whether a current video frame is a main video frame or an additional video frame. The first part of the overlay information and the second part of the overlay information are updated at an overlay rate. The overlay rate is different than the video rate.

Abstract: A lighting module (100) arranged to be attached to a luminaire (110) is disclosed. The lighting module (100) comprises at least one light source (102) for rendering a light output, and a processor (104) arranged for determining if the lighting module (100) has been attached to the luminaire (110). The processor (104) is further arranged for setting the lighting module (100) to a first mode of operation if the lighting module (100) has been attached to the luminaire (110), and for setting the lighting module (100) to a second mode of operation if the lighting module (100) has been detached from the luminaire (110). The light output of the at least one light source (102) is controlled dependent on a light setting of the luminaire (110) when the lighting module (100) is in the first mode of operation, and the light output of the at least one light source (102) is controlled independent on the light setting of the luminaire (110) when the lighting module (100) is in the second mode of operation.

Abstract: A lighting system (100) is disclosed for deploying dynamic lighting effects. The lighting system comprises a plurality of lighting devices (10,10?) adapted to deploy a portion of a dynamic lighting effect and comprising a controller (13) and a network communication module (15). The lighting devices form a mesh network through their respective network communication modules such that each lighting device is communicatively coupled to at least one neighboring lighting device and adapted to communicate illumination state information to the at least one neighboring lighting device.