Abstract: A method of performing video stabilization may be applied to unstable frames captured by a vibrating camera. The method includes checking if the frame is vibrating and calculating a degree of vibration for compensating a vibration area. Based on block motion estimation, a feature block selected from nine fixed observation blocks is used to obtain a vibration vector. The vibration vector is used to adjust the vibration frame for restoring the frame.

Abstract: A motion vector coding unit executes processing including a neighboring block specification step of specifying a neighboring block which is located in the neighborhood of a current block; a judgment step of judging whether or not the neighboring block has been coded using a motion vector of another block; a prediction step of deriving a predictive motion vector of the current block using a motion vector calculated from the motion vector of the other block as a motion vector of the neighboring block; and a coding step of coding the motion vector of the current block using the predictive motion vector.

Abstract: A motion vector coding unit executes processing including a neighboring block specification step of specifying a neighboring block which is located in the neighborhood of a current block; a judgment step of judging whether or not the neighboring block has been coded using a motion vector of another block; a prediction step of deriving a predictive motion vector of the current block using a motion vector calculated from the motion vector of the other block as a motion vector of the neighboring block; and a coding step of coding the motion vector of the current block using the predictive motion vector.

Abstract: A motion vector coding unit executes processing including a neighboring block specification step of specifying a neighboring block which is located in the neighborhood of a current block; a judgment step of judging whether or not the neighboring block has been coded using a motion vector of another block; a prediction step of deriving a predictive motion vector of the current block using a motion vector calculated from the motion vector of the other block as a motion vector of the neighboring block; and a coding step of coding the motion vector of the current block using the predictive motion vector.

Abstract: A motion vector coding unit executes processing including a neighboring block specification step of specifying a neighboring block which is located in the neighborhood of a current block; a judgment step of judging whether or not the neighboring block has been coded using a motion vector of another block; a prediction step of deriving a predictive motion vector of the current block using a motion vector calculated from the motion vector of the other block as a motion vector of the neighboring block; and a coding step of coding the motion vector of the current block using the predictive motion vector.

Abstract: Systems, methods, and other embodiments associated with image frame management are described. According to one embodiment, an apparatus includes classifier logic to categorize frames that represent an image as either reference frames or non-reference frames, where the categorization is based, at least in part, on motion vectors between the frames. The apparatus further includes management logic to store the reference frames and to delete the non-reference frames. Image generation logic may then reproduce the image by using the stored reference frames.

Abstract: A system and method for generating security alerts for a facility is presented. The system can comprise a server, cameras operable to stream video to the server or other storage location and to a surveillance center of the facility, input devices, a first module operable to assign one or more codes to the facility, associate one or more cameras with each code, and associate response guidelines with each code; and a second module operable to receive one code of the one or more codes from one of the one or more input devices, notify the facility assigned to the one code based on the response guidelines, stream video from the one or more cameras associated with the one code to the surveillance center of the facility, and generate the security alert based on the video stream. In one aspect, a user can send a video feed along with the code.

Abstract: Tracking and counting wheeled transportation apparatuses is disclosed. Initially, three or more first images are received from a first camera having a first field of view, where the three or more first images show multiple wheeled transportation apparatuses traversing a portion of a roadway. Next, first and second static characteristics and first and second dynamic characteristics of a first of the multiple wheeled transportation apparatuses are determined. It is then determined that the second static characteristic is approximately equal to the first static characteristic and that the second dynamic characteristic is approximately equal to the first dynamic characteristic. Next, it is determined that the first wheeled transportation apparatus is traversing the portion of the roadway based on the comparisons. A count of the number of wheeled transportation apparatuses traversing the portion of the roadway is then incremented. Finally, the count is indicated.

Abstract: There is described a method to synchronize the orientation of an IGD 3D Coordinate System and the orientation of a 3DM 3D Coordinate System, in which the IGD's gravity direction measurement device and electronic compass are used explicitly. There is also described how an IGD, once its orientation has been synchronized to the orientation of a 3DM, can be used to display 3D graphics that guide the measurement process.

Abstract: New capabilities will allow conventional broadcast transmission to be available to mobile devices. A method is described including the steps of receiving data, encoding the data using a first encoding process, inserting training data into the encoded data, and encoding the encoded data and the training data using a second encoding process. An apparatus is also described including a first encoder receiving at least a portion of data and encoding the portion of data using a first encoding process, a training data inserter inserting training data into the first encoded data, and a second encoder encoding the first encoded data and the training data using a second encoding process.

Abstract: Imaging apparatus performs controlling to read pixel information from pixels belonging to target area by each frame. One frame period is period from when an exposure period for exposing pixels on a horizontal line that is to be read first from among horizontal lines belonging to the target area of a sensor is started and until when reading of the pixel information generated by each of the pixels on the horizontal line is completed. The imaging apparatus sequentially emits, by each illumination period of a length corresponding to at least two frame periods, illumination lights in synchronization with start of the exposure period. The imaging apparatus performs a predetermined controlling by performing controlling to exclude, from predetermined processing target, image data corresponding to the pixel information read during first frame period of the illumination period, while by acquiring image data corresponding to the pixel information read during other frame period.

Abstract: A digital broadcasting transmission/reception system, and a signal processing method thereof for turbo-processing digital broadcasting transport stream and transmitting the processed stream, includes a parity area generating unit preparing a first area for parity insertion with respect to a dual transport stream (TS) which includes a normal stream and a turbo stream as multiplexed, a first interleaver interleaving the dual TS which is transmitted from the parity area generating unit, a turbo processing unit detecting the turbo stream from the interleaved dual TS, exclusively encoding the detected turbo stream for turbo-processing, and stuffing the encoded turbo stream into the dual TS, a deinterleaver deinterleaving the dual TS which is processed by the turbo processing unit, and a transmitting unit transmitting the dual TS which is processed at the deinterleaver.

Abstract: An electronic device is provided comprising a camera that obtains an image, and a controller that provides a first control right to a first object included in the obtained image, sets a virtual region including the first object and following a location of the first object, and provides a second control right to a second object when the second object enters into the virtual region.

Abstract: A television device has a television receiver residing substantially within a television receiver enclosure. A high definition multimedia interface is (HDMI) coupled to the television receiver. A detachable HDMI switch is operatively coupled to the HDMI interface, the HDMI switch and has at least two user-side HDMI buses connected thereto. The detachable HDMI switch resides in an HDMI switch housing that exposes the at least two user-side HDMI connector ports. The detachable HDMI switch housing is detachably connected to the television receiver enclosure to permit the HDMI switch housing to be either attached to the television receiver enclosure for use at the television receiver enclosure, or to permit the HDMI switch housing to be separated from the television receiver enclosure to permit the HDMI switch housing to be situated remotely from the television receiver enclosure so that the HDMI connector ports are remotely accessible while being selectable by the television device.

Abstract: The present invention relates to an apparatus for and a method of propagating depth-related information from a first depth-map (810) associated with a first image (820) to a second depth-map (860) associated with a second image (830), the first and second image being temporally proximate images in an image sequence. The method comprises generating an intermediate depth-map (840) associated with the second image (830) by propagating depth values from the first depth-map (810) to the intermediate depth-map (840) using pixels of the first image (820) and the second image (830), and generating a motion vector (850) using information comprising depth values in a spatial region around a first location in the first depth-map (810) and depth values in a spatial region around a second location in the intermediate depth-map (840) and generating a depth value for the second location in the second depth-map (860) using information comprising the motion vector (850) and the first depth-map (810).

Abstract: A 3D display system uses a lenticular screen or a parallax barrier, along with a shutter plate, as a light directing device to allow a viewer's right eye to see a right image and the left eye to see a left image on a display panel. The right and left images are alternately displayed. The shutter plate has a plurality of right shutter segments and a plurality of left shutter segments arranged in an interleaving manner. When the right image is displayed, the right shutter segments are open and the left shutter segments are closed. When the left image is displayed, the right shutter segments are closed and the left shutter segments are open. But when the 3D display panel is used as a 2D display panel, both the right and left shutter segments are all open so that both the viewer's eyes see the image simultaneously.

Abstract: A method of encoding/decoding a video and an apparatus thereof are disclosed. An embodiment of the present invention provides an encoding/decoding method and apparatus thereof that can interpolate a frame to be skipped with the consideration of the property of the frame. Accordingly, an embodiment of the present invention can encode and decode by using a frame-skipping method having low complexity.

Abstract: An apparatus for tracking the use of at least one destination location, the apparatus including multiple cameras and one or more processors configured to identify a vehicle by use of identification images captured by an identification camera, such as by processing of images of license plates, determine characteristics of the vehicle visible in the identification images, and determine usage of a destination location, such as a parking spot, based on a camera monitoring the destination location capturing images of the vehicle having characteristics corresponding to those determined for the identification images.

Abstract: Tracking the use of at least one destination location is disclosed. Initially, five or more first images are received from a first camera. A first static characteristic, a second static characteristic, a first dynamic characteristic, and a second dynamic characteristic of the first vehicle are determined based the five or more first images. The second static characteristic is determined to be approximately equal to the first static characteristic. The second dynamic characteristic is determined to be approximately equal to the first dynamic characteristic. In response, it is determined that the first vehicle is traversing a portion of a roadway. Then, it is determined that the first vehicle is stopped within the at least one destination location at a first time. It is then determined that the first vehicle left the at least one destination location at a second time that is after the first time. Finally, the first time and the second time are indicated.

Abstract: A method for determining optimal video encoding parameters is disclosed. The method generally includes the steps of (A) storing a plurality of configurable parameters each comprising a respective trial value, (B) generating a bitstream by encoding a test sequence of pictures using (i) a plurality of non-configurable parameters fixed in a design of the encoder, (ii) the configurable parameters and (iii) a plurality of dynamic parameters adjustable in real time by the encoder, (C) generating a reconstructed sequence of pictures by decoding the bitstream, (D) generating a quality metric based on the reconstructed sequence of pictures compared with the test sequence of pictures and (E) adjusting the respective trial values to optimize the quality metric.