Abstract: A mechanism to provide visual feedback regarding computing system command gestures. An embodiment of an apparatus includes a sensing element to sense a presence or movement of a user of the apparatus, a processor, wherein operation of the processor includes interpretation of command gestures of a user to provide input to the apparatus; and a display screen, the apparatus to display one or more icons on the display screen, the one or more icons being related to the operation of the apparatus. The apparatus is to display visual feedback for a user of the apparatus, visual feedback including a representation of one or both hands of the user while the one or both hands are within a sensing area for the sensing element.

Abstract: Techniques are described herein for reducing false positives in vision sensor-equipped assistant devices. In various implementations, initial image frame(s) may be obtained from vision sensor(s) of an assistant device and analyzed to classify a particular region of the initial image frames as being likely to contain visual noise. Subsequent image frame(s) obtained from the vision sensor(s) may then be analyzed to detect actionable user-provided visual cue(s), in a manner that reduces or eliminates false positives. In some implementations, no analysis may be performed on the particular region of the subsequent image frame(s). Additionally or alternatively, in some implementations, a first candidate visual cue detected within the particular region may be weighted less heavily than a second candidate visual cue detected elsewhere in the one or more subsequent image frames. An automated assistant may then take responsive action based on the detected actionable visual cue(s).

Abstract: A video system includes a scene analyzing circuit, configured to perform a scene analysis operation on a video signal and output a scene analysis result; and a video processing module, comprising a first video processing circuit, configured to perform a first video operation on the video signal and output a first processing result; and a second video processing circuit, configured to perform a second video operation on the first processing result according to the scene analysis result.

Abstract: Techniques for video with dynamic pixel update rates are described. A first video frame is received from a video source, the first video frame having a first pixel value at a first frame location of a plurality of frame locations, wherein the first frame location includes a horizontal pixel location and a vertical pixel location. A second video frame is received from the video source, the second video frame having a second pixel value at the first frame location. The first frame location is identified based at least in part on determining a difference between the first pixel value and the second pixel value. A package including a pixel update value and an indication of the first frame location is sent to a video destination, wherein the pixel update value is based at least in part on the second pixel value.

Abstract: In some examples, a computing device includes a display panel comprising a transparent organic light emitting diode panel. A camera is located behind a particular portion of the display panel. A set of pixels cover the particular portion of the display panel. The computing device creates a capture frame comprised of layers that includes a camera layer having a higher priority than a remainder of the layers. The computing device sets the set of pixels in the camera layer to be clear pixels and instructs the display panel to display the capture frame. The computing device instructs the camera located behind the particular portion of the display panel to capture image data when the display panel displays the capture frame. The computing device creates a data frame comprised of additional layers and instructs the display panel to display the data frame after displaying the capture frame.

Abstract: A method for performing real-time detection of objects in motion includes receiving an input video stream from a camera, detecting if a motion has occurred in a current frame of the input video stream, providing the current frame for object detection if the motion has been detected therein, detecting a moving object in the current frame, displaying the detected moving object, simultaneously tracking a location of the detected moving object within corresponding frame, while the object detection continues for one or more moving objects, and generating a tracking box and overlaying the tracking box on the detected moving object and then transmitting the video to the display, and continuing the tracking of the detected moving object till the object detection continues for corresponding one or more moving objects.

Abstract: An electronic system includes a display interface configured to display a calibration point; a sensor, coupled to the display interface, and configured to capture a first gesture directed at the calibration point from a first position; capture a second gesture directed at the calibration point from a second position, wherein the second position is different from the first position; and a control unit, coupled to the display interface, and configured to display a position indicator on the display interface based on a directive gesture captured by the sensor, the first gesture, and the second gesture.

Abstract: Methods and systems are provided for assessing possible misalignment of cameras installed on vehicles. In accordance with one example, a camera is mounted on a body of the vehicle, and is configured to generate camera images. Each of the camera images includes a plurality of pixels. A processor is configured to at least facilitate analyzing the pixels of the camera images with respect to color, brightness, or both; and determining whether the camera is misaligned in its mounting on the vehicle based on the analyzing of the color, the brightness, or both, of the pixels.

Abstract: Aspects include a pixel source that produces data for a rendered surface divided into regions. A mapping identifies memory segments storing pixel data for each region of the surface. The mapping can identify memory segments storing pixel data from a prior rendered surface, for regions that were unchanged during rendering the rendering. Such changed/unchanged status is tracked on a region by region basis. A counter can be maintained for each memory segments to track how many surfaces use pixel data stored therein. A pool of free memory segments can be maintained. Reading a surface, such as to display a rendered surface by a display controller, includes identifying and reading the mapping to identify each memory segment storing pixel data for regions of the surface, reading such, and updating the counters for the memory segments that were read.

Abstract: Representative embodiments are disclosed of a real-time priority-based communication system and method for communicating media streams made up of multiple media message sub-streams, the communication system comprising a chunk configurator for dividing media message sub-streams into chunks, a state machine configured to translate between information regarding the media message sub-streams and the chunks and state associations to the information, the state associations written into a header for each of the chunks, a queue for holding the chunks waiting to be transmitted, and a processor for executing a scheduling algorithm, wherein the scheduling algorithm determines ones of the chunks in the queue to transmit next.

Abstract: A system and method for sampling multi-spectral images of a dynamically changing scene facilitates independently dynamically adjusting the exposure of a photosensor based on a first group of sequences of images, while disregarding a second group of sequences of images, where each sequence of images is of a distinct color of light. In addition, the current description presents an innovative technique for constructing a multi-spectral image of a scene based on individually contrast-enhanced images of the scene. Applications include video photography and high quality true color stills camera with separate sensor arrays for each color channel. The control of the present embodiment can be used to produce photographs with truer color than conventional techniques.

Abstract: There is provided an encoding control apparatus including a scene change detector that detects occurrence of scene change in frame images generated in real time by a renderer, and an encoder controller that controls an encoder that encodes each of the frame images in any of a first scheme in which another frame image is not referred to and a second scheme in which the other frame image is referred to, the encoder controller causing the encoder to encode a frame image after the scene change in the first scheme when the occurrence of the scene change is detected.

Abstract: In general, in one aspect, an apparatus receives pixels associated with an image destined for an external display and determines a reduced backlight brightness for the external display and corresponding changes to the pixels to approximate overall quality of the image with current backlight brightness. Backlight commands are generated for the reduced backlight brightness and the pixels are enhanced to correspond to the reduced backlight brightness. The enhanced pixels and the backlight commands are transmitted to the external display via a display interface that supports backlight control. The display interface may be a wireless interface or a wired (cabled) interface (e.g., display port (DP), high definition multimedia interface (HDMI), video graphics array (VGA)). The functionality of the apparatus is included in a computing device so that backlight brightness reductions and corresponding pixel changes can be made taking into account policies of the computing device and user preferences.

Abstract: An integrated Internet camera includes, an infrared sensor, an optical system for forming an image on the infrared sensor and lenses formed from infrared transmitting material, an image capturing circuit, for capturing digital images from the infrared sensor; a network interface device connectible to a computer network for transmission of the digital images, as digital image files, across the computer network. A file transfer device of the camera communicates, via the network interface device, with a destination computer at a selected network address on the computer network, and transfers the digital image files to the destination computer according to a predetermined file transfer protocol. A transport control device of the camera controls addressing of the digital image files to the selected network address. The camera self-initiates a connection with the computer network and a connection with the destination computer at the selected network address.

Abstract: The invention relates to a method of processing a text, gesture, facial expression, and/or behavior description wherein the text, gesture, facial expression, and/or behavior description is synthesized by means of a speech, gesture, facial expression, and/or behavior profile, provided that an authorization code legitimizes the use of the speech, gesture, facial expression, and/or behavior profile for the synthesis.

Abstract: A depth image of a scene may be received, observed, or captured by a device. The depth image may then be analyzed to determine whether the depth image includes a human target. For example, the depth image may include one or more targets including a human target and non-human targets. Each of the targets may be flood filled and compared to a pattern to determine whether the target may be a human target. If one or more of the targets in the depth image includes a human target, the human target may be scanned. A skeletal model of the human target may then be generated based on the scan.

Abstract: An approach for providing virtual conferencing is described. A virtual conference platform receives, in real-time, images representing users of the respective mobile devices, selects a virtual environment among a plurality of virtual environments, and integrates the images into the selected virtual environment.

Abstract: Techniques are provided for dynamically adapting the view from a conference endpoint that includes a presentation apparatus, such as a whiteboard. A first signal is received that includes a video signal derived from a video camera that is viewing a room during a conference session in which a person is presenting information on a presentation apparatus. During the video conference, switching is performed between the first signal and a second signal representing content being displayed on the presentation apparatus during the conference session for output and transmission to other conference endpoints of the conference session. The determination as to whether to supply the first signal (for a normal view of the conference room) or the second signal may be based on a position determination of the presenter or may be instead be based on an external view selection command received from another conference endpoint participating in the conference session.

Abstract: An information processing apparatus according to an embodiment of the present technology includes a generation unit and a first transmission unit. The generation unit generates parameter information that shows states of a user. The first transmission unit transmits the generated parameter information through a network to an information processing apparatus of a communication partner capable of generating an image that reflects the state of the user on the basis of the parameter information.

Abstract: A method that incorporates teachings of the subject disclosure may include, for example, utilizing a system including at least one processor for determining a video modification plan for a received video stream of a video call session according to the at least one party associated with the video call session, modifying, by the system, a plurality of background images of the received video stream according to the video modification plan to generate a plurality of modified background images, and generating, by the system, a modified video stream according to the plurality of modified background images. Other embodiments are disclosed.

Abstract: A method for rendering a 3D video conference including configuring at least two cameras to track a position of a user, transmitting the position of the user to a participant of the 3D video conference, and rendering for display on a 3D display device parallel participant video streams which have been modified in response to the position of the user.

Abstract: A method and apparatus for measuring the quality of a video is provided. The method comprises: generating a frame loss pattern of the video by indicating whether each frame in the video is lost or successfully transmitted; and evaluating the quality of the video as a function of the generated t came loss pattern.

Abstract: An adder adds, to a luminance value indicated by the image signal of the nth frame, a correction value corresponding to a combination of a luminance value indicated by the image signal of the nth frame and one indicated by the image signal of the (n+1)th frame. The adder outputs an image signal having the luminance value after addition as the image signal of the nth frame.

Abstract: Embodiments of the present invention disclose a method and an apparatus for obtaining a video quality parameter and an electronic device. The method includes dividing a target video segment into at least one video subsegment, where duration of every video subsegment is at least time perceivable by human eyes; obtaining a video quality parameter of the video subsegment; and processing the video quality parameter of the video subsegment, and obtaining a video quality parameter of the target video segment.

Abstract: Systems and methods of visually indicating one or more gestures of a user of a node (22) in the content of a media stream (24) are disclosed. A node (22) configured to transmit a media stream (24) having content to one or more other nodes (22) includes a screen configured to display the content of the media stream, a media device (36) configured to capture an image of one or more gestures of the user of the node (22), wherein the one or more gestures are adjacent to the screen and the media device (36) is positioned to capture the image without capturing more than a peripheral view of the screen in that image; a media analyzer (38) configured to generate a visual representation of the captured one or more gestures; and a compositer (40) configured to composite the visual representation of the captured one or more gestures with the content of the media stream (24).

Abstract: The present invention provides a multi-channel video communication system which includes a scalable video codec, a bit-stream truncating module, a network module and a multi-channel bit-stream truncating control module. The scalable video codec encodes a video source to generate a scalable original video bit-stream. The bit-stream truncating module is set between the scalable video codec and the network module, truncates the original video bit-stream to obtain a final video bit-stream and sends the final video bit-stream to the remote client device through the network module. The multi-channel bit-stream truncating control module is connected with the bit-stream truncating module, calculates a filter parameter for each bit-stream truncating unit in the bit-stream truncating module based on received device capabilities and network conditions of the remote client device. The present invention also provides a multi-channel video communication method in the above multi-channel video communication system.

Abstract: A method and apparatus for increasing the effective contrast ratio and brightness yields for digital light valve image projectors using a variable luminance control mechanism (VLCM), associated with the projector optics, for modifying the light output and provide a correction thereto; and an adaptive luminance control module (ALCM) for receiving signals from the video input board, the adaptive luminance control module producing a signal on a VLCM bus connecting the variable luminance control mechanism and the adaptive luminance control module, the signal causing the variable luminance control mechanism to change the luminance of the light output and provide a corrected video signal for the projector.

Abstract: A mobile communication device that is outfitted with motion detection mechanisms is used to construct a viewport on audio-visual data. As the communication device is moved along a spatial trajectory, the viewport is positioned accordingly. A virtual space can be constructed such that the spatial trajectory is mapped into the virtual space and the user can navigate the virtual space by suitable movement of the communication device. Accordingly, a user can use natural body movements to navigate the virtual space through the viewport.

Abstract: An image displaying apparatus executes FRC process, wherein image deterioration in a boundary portion between a still image display area and its periphery is prevented. When the magnitude of the motion vector of an object in the periphery of a still image display area is less than a predetermined threshold value, an interpolation frame generation portion defines the pixel values of a still image display area and its periphery of the frame #n as the interpolation pixel values of a still image display area and its periphery of the interpolation frame #I. When the magnitude of the motion vector of the object is equal to or greater than the predetermined threshold value, the pixel values of the still image display area and its periphery of the frame n+1 are defined as the interpolated pixel values of the still image display area and its periphery of the interpolation frame #I.

Abstract: Spatial or temporal interpolation may be performed upon source video content to create interpolated video content. A video signal including the interpolated video content and non-interpolated video content (e.g. the source video content) may be generated. At least one indicator for distinguishing the non-interpolated video content from the interpolated video content may also be generated. The video signal and indicator(s) may be passed from a video source device to a video sink device. The received indicator(s) may be used to distinguish the non-interpolated video content from the interpolated video content in the received video signal. The non-interpolated video content may be used to “redo” the interpolation or may be recorded to a storage medium.

Abstract: In some implementations, a method includes receiving a selection of one or more users of a social networking service, the selection received via a social networking interface. A live visual data feed derived from a camera is received, where the received live visual data feed has a multiple frames and has a time interval between successive frames of the live visual data feed. A modified live visual data feed is sent over a network to be distributed using the social networking service to the selected users of the social networking service. The modified live feed includes frames derived from the frames of the received live visual data feed, and the modified feed provides a different time interval between its successive frames than the time interval between the frames of the received live feed.

Abstract: A method for encoding pictures within a groups of pictures using prediction, where a first reference picture from a group of pictures and a second reference pictures from the subsequent group of pictures are used in predicting pictures in the group of pictures associated with the first reference picture. A plurality of anchor pictures in the group of pictures associated with the first reference picture may be predicted using both the first and second reference pictures to ensure a smooth transition between different groups of pictures within a video frame.

Abstract: Disclosed is a method and apparatus for transmitting/receiving image data in a mobile communication system, in which image data are classified into two types of image data, a first type of image data corresponding to entire-image data in a current time period, a second type of image data being image data representing a difference between previous time-period image data and current time-period image data. A transmission side transmits image data to a reception side, and the reception side notifies the reception side of error occurrence of received image data when detecting the error occurrence on the received image data. When receiving the notification of the error occurrence, the transmission side generates the first type of image data and transmits the first type of image data to the reception side. The reception side receives generated the first type of image data from the transmission side and decodes the first type of image data.

Abstract: A dynamically adjustable framed view of occupants in a room is captured through an automatic framing system. The system employs a camera system, including a pan/tilt/zoom (PTZ) camera and one or more depth cameras, to automatically locate occupants in a room and adjust the PTZ camera's pan, tilt, and zoom settings to focus in on the occupants and center them in the main video frame. The depth cameras may distinguish between occupants and inanimate objects and adaptively determine the location of the occupants in the room. The PTZ camera may be calibrated with the depth cameras in order to use the location information determined by the depth cameras to automatically center the occupants in the main video frame for a framed view. Additionally, the system may track position changes in the room and may dynamically adjust and update the framed view when changes occur.

Abstract: A method for identifying state of macro block of de-interlacing computing and an image processing apparatus are provided, the method is as follows. A video frame is divided into a plurality of regions, where each of the regions includes a plurality of macro blocks. Then, a basic threshold corresponding to each of the regions is provided according to a position of each of the regions in the video frame, and a first macro block is identified to be a first type macro block or a second type macro block according to the basic threshold corresponding to one of the regions where the first macro block of the macro blocks locates. Then, a corresponding de-interlacing computing step is performed on the first macro block according to an result that the first macro block is identified as the first type macro block or the second type macro block.

Abstract: Embodiments of the present invention disclose a method and an apparatus for obtaining a video quality parameter and an electronic device. The method includes dividing a target video segment into at least one video subsegment, where duration of every video subsegment is at least time perceivable by human eyes; obtaining a video quality parameter of the video subsegment; and processing the video quality parameter of the video subsegment, and obtaining a video quality parameter of the target video segment.

Abstract: Gain Saturation (GS) for MRFME is where searching in more previous frames offers very limited or even no performance gain. Similarly, gain aggregation (GA) is where significant gain can be obtained by searching more frames. By dynamically determining, while encoding, if either condition applies, and changing the search range accordingly, complexity is reduced and speed can be increased.

Abstract: An image processing apparatus according to the present invention, comprises: a motion detection unit that detects a motion vector from an input image; a determination unit that determines whether an image is moving in each pixel in use of the detected motion vector, and determines whether a motion pixel, about which determination has been made that the image is moving therein, exists in a predetermined range from a still pixel about which determination has been made that the image is not moving therein; and a correction unit that performs correction processing to decrease at least one of high frequency components, contrast, and luminance for the still pixel about which determination has been made that a motion pixel exists in the predetermined range.

Abstract: A processing method of an image processing system, which is applied with at least one real-time messaging video communication system of an electronic device and contains a start module, a process detecting module and an image processing module, includes the steps of: installing the process detecting module into the real-time messaging video communication system by the start module; detecting whether the real-time messaging video communication system starts the real-time communication by the process detecting module; installing the image processing module into the real-time messaging video communication system when the real-time messaging video communication system starts the real-time communication; and generating a plurality of converted frame data by the image processing module in accordance with a plurality of frame data to be displayed by the real-time messaging video communication system. In addition, the image processing system is also disclosed.

Abstract: An apparatus for providing a mobile streaming adaptor includes a processor configured to receive media content from a remote camera, process the received media content by capturing, encoding and encapsulating the media content at a mobile electronic device, connect to a remote streaming server through function of a mobile networked device; and stream the encapsulated media content to the mobile networked device for communication of the encapsulated content to the remote streaming server through an Internet Protocol (IP) network for real-time distribution to a communication device. A corresponding computer program product and method are also provided.

Abstract: A method is provided in one example embodiment and includes receiving data indicative of a personal position of an end user. A media stream is selected from a plurality of media streams to be transmitted to the end user based on the personal position. The selected media stream includes image data of an object captured by a camera and the image data is used to construct a three-dimensional rendering of the object. In more specific embodiments, the media stream selection is executed by a server configured to be coupled to a network. The camera can be part of a plurality of cameras that capture image data associated with the object and that transmit respective media streams over a network. Once a camera begins transmitting image data over the network and to the end user, other cameras from the plurality of cameras stop transmitting their respective media streams over the network.

Abstract: One of a plurality of video channels is selected for viewing. A specific one of a plurality of video channels is bookmarked. An object representing said bookmarked channel is displayed. A displayed object is selected to select the bookmarked channel.

Abstract: Embodiments are configured to provide video conferencing functionality including using region of interest (ROI) features to provide a video signal, but the embodiments are not so limited. In an embodiment, components of a video conferencing system can operate to provide a video signal using pixel data associated with a ROI. In one embodiment, a video conference device can include a detector that can be used to detect human flesh tone regions in a video scene as part of providing a video stream to one or more conference participants.

Abstract: A mobile communication terminal displays images of a video conference to enable a feeling of natural conversation ambience to the participants. The terminal captures an image of the terminal user and receives images of other video conference participants. The terminal displays one of the received images closest to the camera, and the captured image farthest from the camera to encourage the user to focus his line of sight to the camera. Also, a sight location indicator is displayed as a further aid to directing the line of sight. Looking at the camera provides a natural conversation ambience to the participants.

Abstract: A method and system for providing computer input/output (I/O) functionality within a remote computing environment. The system comprises a host audio controller and a remote audio controller for bridging audio data between a host computing system and at least one remote audio device, a host USB controller and a remote USB controller for bridging USB data between the host computing system and at least one remote USB device, and an encoder module and a remote display decoder for bridging a digital video signal from the host computing system to a remote display, wherein the host audio controller, the host USB controller, and the encoder module are communicatively coupled to the remote audio controller, the remote USB controller, and the remote display decoder, respectively, via a computer network.

Abstract: Some embodiments provide an architecture for establishing multi-participant video conferences. This architecture has a central distributor that receives video images from two or more participants. From the received images, the central distributor generates composite images that the central distributor transmits back to the participants. Each composite image includes a set of sub images, where each sub image belongs to one participant. In some embodiments, the central distributor saves network bandwidth by removing each particular participant's image from the composite image that the central distributor sends to the particular participant. In some embodiments, images received from each participant are arranged in the composite in a non-interleaved manner. For instance, in some embodiments, the composite image includes at most one sub-image for each participant, and no two sub-images are interleaved.

Abstract: There are provided a system, an apparatus, and a method for suppressing increase in an amount of distribution data when performing content distribution via a network, improving reliability of the data received by a receiver in the distribution through an unstable transmission path such as a wireless transmission path, enabling provision of the content with a stable quality, and realizing the provision of the content with an optimal quality for the reception environment of content receiver, while suppressing an increase in an amount of processing for improving reliability of the distribution data on both of reception side and a transmission side.

Abstract: A method is provided in one example embodiment and includes receiving data indicative of a personal position of an end user and receiving image data associated with an object. The image data can be captured by a first camera at a first angle and a second camera at a second angle. The method also includes synthesizing the image data in order to deliver a three-dimensional rendering of the object at a selected angle, which is based on the data indicative of the personal position of the end user. In more specific embodiments, the synthesizing is executed by a server configured to be coupled to a network. Video analytics can be used to determine the personal position of the end user. In other embodiments, the method includes determining an approximate time interval for the synthesizing of the image data and then delaying audio data based on the time interval.

Abstract: The present invention is a method and system for extracting messages from a person using the body features presented by a user. The present invention captures a set of images and extracts a first set of body features, along with a set of contexts, and a set of meanings. From the first set of body features, the set of contexts, and the set of meanings, the present invention generates a set of words corresponding to the message that the person is attempting to convey. The present invention can also use the body features of the person in addition to the voice of the person to further improve the accuracy of extracting the person's message.

Abstract: Embodiments of the present invention comprise systems and methods for creation, modification and implementation of dither pattern structures. The dither pattern structures may be at least one of spatially interrelated, chromatically interrelated, or temporally interrelated using feedback.