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: Disclosed is a lighting unit (10) that utilizes sensor data to select a fade-in or fade-out profile for one or more light sources (12). The lighting unit includes a clock module (20), an ambient light level sensor (18), and a controller (16). The controller receives ambient light level data from the ambient light level sensor and time of day data from the clock module, and utilizes the received information to automatically select a fade-in or fade-out profile. The controller can also use the received ambient light level data to calibrate the clock module.

Abstract: Disclosed is a lighting fixture (10) that illuminates a presentation object or surface. The lighting fixture includes a first member (18) that at least partially surrounds or encompasses the presentation object and has a plurality of LED-based light sources (12) which can create a variety of lighting effects based on one or more characteristics of the presentation object. The lighting fixture further has a sensor (34) that detects a characteristic of the presentation object, and a controller (26) connected to the sensor such that, as a result of the individual addressability of the LED-based light sources, create or modify a directional lighting effect based on the detected characteristic.

Abstract: Disclosed is an attachable apparatus (100) and related methods for controlling one or more properties of light emitted by a light source. In various embodiments, the attachable lighting control apparatus may be secured to a surface (632), which in some instances may be on or near the light source (630). In various embodiments, a placement sensor (218) may detect that the attachable lighting control apparatus has been secured to the surface, and may activate the attachable lighting control apparatus. Activation may cause the attachable lighting control apparatus to, automatically or in response to one or more additional events, commission itself to control one or more properties of light emitted by the light source. In various embodiments, the attachable lighting control apparatus may generate and transmit to the light source a lighting instruction based on touch input received at one or more touch-sensitive sensors (216) of the attachable lighting control apparatus.

Abstract: A device for processing video information has an input unit (112) for receiving the video information having low dynamic range [LDR] video data and/or high dynamic range [HDR] video data, and a video processor (113) for generating a display signal for display in a LDR display mode or HDR display mode. Graphics data is processed for generating an overlay for overlaying the video data. The input unit receives graphics processing control data comprised in the video information, the graphics processing control data including at least one HDR processing instruction for overlaying the graphics data in the HDR display mode. The video processor is constituted for adapting the processing when overlaying the graphics data in dependence on the specific display mode and the HDR processing instruction. Advantageously the source of the video information is enabled to control the processing of graphics in HDR display mode via the HDR processing instruction.

Abstract: Three dimensional [3D] image data and auxiliary graphical data are combined for rendering on a 3D display by detecting depth values occurring in the 3D image data and setting auxiliary depth values for the auxiliary graphical data adaptively in dependence of the detected depth values. The 3D image data and the auxiliary graphical data at the auxiliary depth value are combined based on the depth values of the 3D image data. First an area of attention in the 3D image data is detected. A depth pattern for the area of attention is determined, and the auxiliary depth values are set in dependence of the depth pattern.

Abstract: A 3-D picture is provided by providing a pair of pictures that includes a first picture for one eye of a viewer, and a second picture for the other eye of the viewer. In addition, a depth map specifically dedicated to the first picture is provided. The depth map includes depth indication values. A depth indication value relates to a particular portion of the first picture and indicates a distance between an object at least partially represented by that portion of the first picture and the viewer. The 3-D picture is supplemented with rendering guidance data that specifies respective parameters for respective rendering contexts. These respective parameters relate to generating a shifted viewpoint picture from the first picture and the depth map.

Abstract: Disclosed is a lighting assembly (10) that includes a mounting surface (14) that that allows the installer to attach the assembly to an external structure (15) with an adhesive strip (144). The lighting assembly also includes a light-emitting surface (18) that directs spot illumination to a predetermined display area (17) by way of a combination of collimated light-emitting elements (182) and an optical element (184). The lighting assembly also features a touch-sensitive surface (16) that allows the user to both program the lighting assembly and control the display lighting in a flexible manner by providing the user with different modes of interacting with the lighting assembly.

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 systems for providing enhanced augmented reality features and enhancements are disclosed such as an AR support system (100) using lighting units (LU1) in a lighting system (100) to improve performance of augmented reality devices (20). The lighting system (100) may also take advantage of features of the augmented reality devices (20) to improve the safety and performance of the lighting system (100). The lighting units (LU1) include sensors and communication capabilities that detect situations as to when the augmented device would need to be assisted by the lighting network. Finally a method to provide assistance information to the augmented reality device while optimizing energy savings is also described.

Abstract: Disclosed are methods and apparatus for lighting control. One or more properties of light output are controlled based on a light origination input and a light destination input received via one or more user interfaces. For example, in some embodiments a light origination input and a light destination input may be utilized to determine one or more control parameters of one or more LEDs to achieve illumination of a light destination area indicated by the light destination input, wherein the illumination is from a light origination area indicated by the light origination input.

Abstract: Methods, lighting control systems, mobile computing devices and computer-readable media are described herein for graph-based navigation through an environment(100). In various embodiments, a graph (220) including a plurality of nodes and a plurality of edges may be provided, e.g., by a lighting control system(130), to mobile computing devices (350) such as smart phones and tablets carried through the environment. Each node may correspond to a location of a lighting effect produced by a particular light source within the environment. Each edge may correspond to a path between two nodes. Data indicative of a path travelled through the graph by one or more mobile computing devices between a first node corresponding to a first location and a second node corresponding to a second location may be used to update the graph. Mobile computing devices may utilize the graph to calculate optimal paths (220) and/or guide users through the environment.

Abstract: A prolonged release system having a locking member pivotally mounted on a post within a hand brake and having an arm that contacts a clutch assembly to prevent the clutch assembly of the handbrake from engaging after it has been manually released. Rotation of the hand brake wheel causes a pawl on a ratchet gear to move into contact with a cam of the locking member so that the arm of the locking member moves out of contact with the clutch assembly. By maintaining the clutch assembly in a released position, the prolonged release system ensures that the brake chain drum is decoupled from the driveshaft of the hand brake and prevents the inadvertent application of the brakes. When a user turns the hand brake wheel, the locking member is disengaged from the clutch assembly and the hand brake can be set by a user.

Abstract: Systems, methods, apparatus (e.g., mobile computing devices), and computer-readable media are described herein for lighting control. In various embodiments, a mobile computing device may receive input indicative of a desired lighting property adjustment for a lighting effect sensed by a light sensor of the mobile computing device. The mobile computing device may identify one or more LED-based lighting units that contribute to the sensed lighting effect. The mobile computing device may then generate, for wireless transmission to the one or more contributing LED-based lighting units, an instruction configured to cause at least some of the one or more contributing LED-based lighting units to implement the desired lighting property adjustment. In various embodiments, one or more user inputs of the mobile computing device may be selectively enabled, based on a detected lighting context, to receive the input indicative of a desired lighting property adjustment.

Abstract: Disclosed are methods and apparatus for lighting control. Initial lighting may be applied to an object in response to identifying presence of the object. The initial lighting may be adjusted based on a user lighting manipulation gesture made proximal to the object. Also, for example, in some embodiments a lighting system (100, 200) may be provided that includes at least one light source (164, 264), an object sensor (153, 255), a gesture sensor (156, 255), and a controller (150, 250). The controller may provide lighting having a first state in response to the object sensor initially identifying presence of the object and may adjust the lighting in correspondence with a lighting manipulation gesture sensed via the gesture sensor to achieve a second state distinct from the first state.

Abstract: Computer-readable media, methods and systems are provided herein for facilitating selective advertisement of a user's availability to communicate based on one or more lighting properties of one or more light sources (112-116, 742, 746). In various embodiments, an identifier and one or more lighting properties of a light source may be obtained by a computing device (100, 150, 700), directly (e.g., using an optical sensor) or through one or more computer networks (122). Based on this obtained data, the computing device may determine an activity of the user, and based on the determined activity, may facilitate selective advertisement of the user's availability to communicate over one or more social networks.

Abstract: A system of providing a three-dimensional [3D] graphical user interface on a 3D image device (13) is provided for controlling a user device (10) via user control means (15). The user control means are arranged for receiving user actions and generating corresponding control signals. A graphical data structure is provided representing a graphical control element for display in the 3D graphical user interface. The graphical data structure has two dimensional [2D] image data for representing the graphical control element, and also at least one depth parameter for positioning the 2D image data at a depth position in the 3D graphical user interface.

Abstract: The present disclosure is directed generally to lighting control, and more particularly, to various inventive methods, systems, computer-readable media (transitory and non-transitory) and apparatus for conveying aggregate presence information using light. For example, in some embodiments, output of a presence sensor over time may be aggregated, and an LED node may cause one or more LEDs to emit light having a property that conveys the aggregated captured output.

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: The invention provides a device comprising a screen for displaying a graphical user interface, wherein the device is configured to control a lighting property of a lighting unit of a plurality of lighting units, wherein the device is configured to display on a screen of the device a plurality of lighting-related user interface elements, wherein each lighting-related user interface element includes a photograph-based picture of the corresponding lighting unit in its application environment, wherein each lighting-related user interface element is configured to control the lighting unit light of the corresponding lighting unit, and wherein each lighting-related user interface element is configured to show a lighting effect corresponding to the lighting property of the corresponding lighting unit.