Abstract: The present invention relates to a light-emitting panel (1) comprising a first plurality of light-sources (11a-d) arranged in a first light-source layer (12) and a second plurality of light-sources (14a-d) arranged in a second light-source layer (15), with a light-diffusing layer (13) being arranged and configured to substantially only diffuse light emitted by light-sources in the first plurality of light-sources (11a-d) so that the light-emitting panel (1) is arranged to provide diffused illumination from the first light-source layer (12) and substantially un-diffused illumination from the second light-source layer (15). The light-emitting panel (1) also comprises a light sensor for sensing light that is emitted by light-sources in the first plurality of light-sources (11a-d) following reflection at an object arranged in front of the light-emitting panel (1), so that the operation of the light-emitting panel (1) can be controlled based on the signal provided by the light-sensor.

Abstract: A coded light device comprising a light source configured to emit coded light, an identifier detection unit configured to detect a product identifier, and a processing unit having a code generator configured to generate a product-related code on basis of the product identifier, and a light source controller configured to control the light source to emit the product-related code by coding its light output.

Abstract: The present invention relates to a method of encoding a video data signal for use with a multi-view rendering device,a method of decoding the video data signal, the video data signal, an encoder of the video data signal, a decoder of the video data signal, a computer program product comprising instructions for encoding the video data signal and a computer program product comprising instructions for decoding a video data signal. The method of encoding provides (401) a first image (10) of a scene associated with a first viewpoint, a depth map (20) associated with the first image, metadata (30) for use in depth map processing or rendering one or more views for further viewpoints by the multi-view rendering device, and generates (404) the video data signal. The video data signal comprises video frames partitioned in sub-images comprising a sub-image based on the first image and a depth sub-image based on the depth map, and metadata encoded in a color component of the depth sub-image.

Abstract: Disclosed are methods and apparatus for lighting control. One or more properties of light output are controlled based on user manipulation of a mobile computing device (110, 510) such as a mobile phone. Data from a mobile computing device may be utilized to implement lighting property adjustments for one or more LEDs (132) based on the data. The data may be user gesture data that is based on physical movement of the mobile computing device in space by the user.

Abstract: An apparatus generates an image coding signal comprising for each image a first pixelized picture and a second pixelized picture having a luminance component and a chroma component. The apparatus comprises a first picture processor (203, 211) which includes image encoding data for an encoded first image in the first pixelized picture. A second picture processor (205, 207, 209, 211) includes dynamic range extension data in the second pixelized picture. The dynamic range extension data may be dynamic range extension data included in a chroma component of the second pixelized picture for generating an increased dynamic range image on the basis of the encoded first image. The compensation data may e.g. be compensation data for correcting another LDR-to-HDR transform, e.g. a prefixed global gamma transformation.

Abstract: Methods, apparatus and computing devices are described herein for activatable lighting devices. In various embodiments, a composition of a lighting system may be ascertained based at least in part on a database (851, 951) of one or more lighting device records associated with one or more lighting devices (100, 600, 700, 800a, 800b, 900, 1000a, 1000b, 1000c) of the lighting system. In various embodiments, it may be determined, based on the ascertained composition, that a predetermined criterion is satisfied. In various embodiments, a communication may be issued in response to the determination. The communication may be configured to facilitate activation of a deactivated lighting device function of a lighting device associated with the lighting system.

Abstract: An electrical trainline junction box formed from a housing having first and second opposing sides, an identification module positioned in the housing, and first and second receptacles positioned in each of the first and second opposing sides. The first and second receptacles have a plurality of electrical contacts arranged in a predetermined geometry so that only one possible orientation and electrical connection to trainline flanges is possible. The flanges include contact pins in inserts coupled to the flanges by sleeves. The outer surface of the inserts and the inner surface of the sleeves are keyed to allow only a single orientation of the inserts relative to the sleeves. The outer surface of the sleeves is shaped to allow only a single orientation of the sleeves relative to the flanges, thus ensuring that the proper electrical connection is made when the junction box is installed.

Abstract: Disclosed are methods and apparatus for lighting control. Presence of a lighting control element (110, 310, 312A-C, 510, 512, 610, 710, 915, 917) is identified over one or more LEDs (323, 327, 930) and at least one lighting control property of the lighting control element is identified. At least one property of light output of controlled light sources associated with the lighting control element is adjusted based on the lighting control property of the lighting control element. The lighting control element may be a user interface element.

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: Methods and apparatus related to compensating for electrical changes resulting from cut-out of a portion of a grid of a plurality of LEDs (20A-T; 120; 220; 320). A compensating unit (40; 140; 240; 340) may be coupled to free wire segments of the grid that are created by the cut-out and the compensating unit (40; 140; 240; 340) may be configured to alter current supplied to remaining LEDs of the grid of LEDs. The compensating unit is configured to and/or may be configured to lessen current supplied to one or more LEDs of an LED-based lighting unit.

Abstract: The invention relates to a signal comprising video information and associated playback information, the video information and associated playback information being organized according to a playback format, the video information comprising a primary video stream for two-dimensional (2D) display, and an additional information stream for enabling three-dimensional (3D) display, wherein that the associated playback information comprises display information indicating the types of display possible.

Abstract: A luminaire (1a, 1b) and a method for controlling a luminaire are disclosed. The luminaire (1a, 1b) comprises a light source (2) and an ultrasonic sensor (3). The ultrasonic sensor (3) detects the presence and direction of movement of a person (4) with respect to the light source (2). A controller modifies a lighting parameter emitted from the light source (2) depending on whether a person (4) is moving towards or away from the light source (2).

Abstract: Disclosed are methods and apparatus for lighting control. Presence of an optical element (110, 310, 200 312, 710A-E, 712, 810) is identified over one or more LEDs (323, 327) and at least one property of the optical element is identified. At least one property of light output of light sources associated with and/or covered by the optical element with covered LEDs element is adjusted based on the property of the optical element.

Abstract: A content distribution system (300) has access control according to a predefined data access format. The system has organizations (32) for providing content data and related meta data on record carriers (34), and a rendering device (39), and applications for manipulating the content data and related meta data. An access policy for the organization is set according to the predefined data access format, and has access parameters for controlling access to resources of the rendering device and to said content data and related meta data. An organization application (35) complying with the access policy of the organization for accessing said data is executed while accessing the resources of the rendering device according to the access policy of the organization. According to the invention a user access policy is maintained that restricts, for the organization application, access to the resources of the rendering device relative to the access policy of the organization.

Abstract: The invention relates to a signal comprising video information and associated playback information, the video information and associated playback information being organized according to a playback format, the video information comprising a primary video stream for two-dimensional (2D) display, and an additional information stream for enabling three-dimensional (3D) display, wherein that the associated playback information comprises display information indicating the types of display possible.

Abstract: An autostereoscopic display device uses an electroluminescent display. A set of pixels is provided beneath lenticular lenses, with a plurality of pixels across the lens width direction. The pixels across the lens width direction are arranged with at least two different heights over the substrate. This enables the pixels to define a non-planar array, and they can follow the area to which light is focused by the lenticular lenses.

Abstract: Methods and apparatus related to compensating for electrical changes resulting from cut-out of a portion of a grid of a plurality of LEDs (20A-T; 120; 220; 320). A compensating unit (40; 140; 240; 340) may be coupled to free wire segments of the grid that are created by the cut-out and the compensating unit (40; 140; 240; 340) may be configured to alter current supplied to remaining LEDs of the grid of LEDs. The compensating unit is configured to and/or may be configured to lessen current supplied to one or more LEDs of an LED-based lighting unit.

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 3D video system transfers video data from a video source device (40) to a destination device (50). The destination device has a destination depth processor (52) for providing destination depth data. The source device provides depth filtering data including filter location data, the depth filtering data representing a processing condition for processing the destination depth data in a filter area of the video indicated by the filter location data. The destination depth processor (52) is arranged for processing, in dependence on the depth filtering data, the destination depth data in an area of the video indicated by the filter location data. The depth filtering data enables the rendering process to improve the quality of the depth data.

Abstract: Providing entry points for 3D video data is described; an entry point unit (18) generates an entry point table by defining entry points in an incoming 3D video data stream and storing entry point addresses giving the location of the defined entry points; the video data stream comprises a multitude of sub-streams, which multitude encodes one stream of 3D 5 video data and comprises at least one 2D sub-stream that independently encodes a 2D version of the 3D video data and at least one auxiliary sub-stream that dependently encodes part of the 3D video data; the entry points include main entry points in the 2D sub-stream and auxiliary entry points in the auxiliary sub-stream for enabling 3D trickplay of the 3D video data by retrieving and decoding non-adjacent fragments of the 2D sub-stream and retrieving 10 and dependently decoding corresponding fragments of the auxiliary sub-stream.