Abstract: In a system and a method for extrinsic calibration of an image capture apparatus of a vehicle, the vehicle includes a vehicle body and a movable part configured to rotate around a known rotation axis relative to the vehicle body. The system includes an image capture apparatus having an image capture device mounted on the vehicle body and configured to capture at least two images of the movable part, an identification unit configured to identify at least two image features in the images, a calculation unit configured to calculate a calculated direction of the rotation axis relative to the image capture device based on the image features, and a calibration unit configured to determine extrinsic parameters of the image capture apparatus based on the calculated direction of the rotation axis relative to the image capture device and the known parameters of the rotation axis relative to the vehicle.

Abstract: A system uses range and Doppler velocity measurements from a lidar system and images from a video system to estimate a six degree-of-freedom trajectory of a target and generate a three-dimensional image of the target. The system may refine the three-dimensional image by reducing the stochastic components in the transformation parameters between video frame times.

Abstract: A method for performing Multivariable Matrix Spectral Factorization has been developed, which allows factorization in real time high-dimensional matrices with multivariable high-order polynomial or non-rational entries. Systems implementing the method provide improved performance and capabilities in applications reducible to multivariable matrix spectral factorization.

Abstract: There is provided a generation device, an identification information generation method, a reproduction device, and an image reproduction method capable of identifying a packing scheme. Stereo packing identification information for identifying a scheme of packing is generated with regard to a plurality of region images of a celestial sphere image packed in a packed frame. In a case in which packing is performed by one of a plurality of packing schemes, stereo packing identification information indicating a packing method can be generated, a projected frame can be generated easily on the basis of the identification information, and the projected frame can be rendered. The present technology can be applied to a case in which a celestial sphere stereoscopic image is transmitted to be reproduced on a reception side.

Abstract: An external scene image captured by an external scene imaging electronic camera attached to a head mounted display (HMD) is projected and displayed onto an image display screen arranged in front of the eyes of the user as a virtual image with a suitable viewing distance corresponding to the visual acuity of the user. At this time, for each object image presented in the virtual image of the external scene image, the virtual image is processed and formatted to add a predetermined degree of binocular disparity and image blur to the virtual image projected and displayed on the right and the left image display screen on the basis of a predetermined converted distance calculated from the real distance of each object. Thus, the user is given a sense of a realistic perspective for the virtual image of the external scene, free of the discomfort or unease.

Abstract: A video encoding method is provided in the present invention. The method includes: determining a range of interest ROI in an ith frame, wherein the ROI comprises at least one ROI macroblock; extracting characteristic information of the at least one ROI macroblock, wherein the characteristic information comprises location information and type information of the at least one ROI macroblock; determining a quantization parameter QP corresponding to each of the at least one ROI macroblock; encoding the characteristic information of the at least one ROI macroblock according to the determined QP corresponding to each ROI macroblock, to obtain an ROI characteristic stream of the ith frame; and adding, to a video stream of the ith frame, the QP corresponding to each ROI macroblock and the ROI characteristic stream of the ith frame, to perform sending, wherein the video stream of the ith frame is obtained by encoding the ROI and a non-ROI comprised in the ith frame.

Abstract: A method, apparatus and computer program product are provided in order to create and/or decode video content of a scene that includes regions having looping video of different loop lengths with the video content of the scene being configured to be repeatedly looped, such as in the form of a cinemagraph, without any temporal discontinuity. In the context of a method, the video content of a scene is encoded. The video content includes at least two regions having looping videos of different loop lengths. The method also includes constructing metadata in association with the video content. The metadata comprises information identifying a location of each region within the scene. The metadata further comprises a loop length for each of the at least two regions. The method further includes causing provision of the video content as encoded and the metadata.

Abstract: A vehicular vision system includes a camera and an image processor that processes frames of image data captured by the camera. With the vehicle parked, the vehicular vision system processes frames of captured image data to track a three dimensional object to determine movement of the three dimensional object relative to the parked vehicle. The vehicular vision system determines that the three dimensional object is a bicycle sideward and rearward of the parked vehicle and approaching the parked vehicle from rearward of the parked vehicle. With a door of the parked vehicle closed, and at least in part responsive to the determined bicycle being within a threshold distance to the parked vehicle and approaching a side region adjacent the door of the vehicle, the vehicular vision system generates an output indicative of determination of the determined bicycle approaching the side region adjacent the door of the vehicle.

Abstract: A method is provided for encoding at least one current image. The method implements, at an image capturing terminal, for at least one portion to be encoded of the current image: determining a piece of information related to manipulation of the terminal by a user, in relation with the at least one captured current image; obtaining at least one piece of data related to the current image by transforming the determined piece of information; and from the obtained piece of data, implementing at least one of the following acts: predicting a piece of movement information associated with the at least one portion of the current image, and determining at least one characteristic of an encoding mode associated with the at least one portion of the current image.

Abstract: In various embodiments, an iterative encoding application encodes a source video sequence. The encoding optimization application generates a set of shot encode points based on a set of encoding points and a first shot sequence included in the source video sequence. Each shot encode point is associated with a different encoded shot sequence. The encoding optimization application performs convex hull operation(s) across the set of shot encode points to generate a first convex hull associated with the first shot sequence. Subsequently, the encoding optimization application generates encoded video sequences based on the first convex hull and a second convex hull associated with a second shot sequence included in the source video sequence. The encoding optimization application computes a new encoding point based on the encoded video sequences and a target value for a first video metric and then generates an optimized encoded video sequence based on the new encoding point.

Abstract: In various embodiments, a buffer-based encoding application generates a first convex hull of subsequence encode points based on multiple encoding points and a first subsequence associated with a media title. The buffer-based encoding application then generates a first global convex hull of media encode points based on a transmission buffer constraint, the first convex hull, and a second global convex hull of media encode points. Notably, the second global convex hull is associated with a portion of the media title that occurs before the first subsequence in a playback order for the media title. Subsequently, the subsequence-based encoding application selects a first media encode point included in the first global convex hull based on a media metric and determines a first encoded media sequence based on the selected media encode point. The first encoded media sequence is subsequently streamed to an endpoint device during playback of the media title.

Abstract: A motion vector decoding unit derives a motion vector of a prediction block subject to decoding on the basis of a motion vector of a candidate block included in candidate blocks selected from neighboring blocks. The motion compensation prediction unit performs motion compensation prediction using the derived motion vector. In case a motion vector number of a first block and a motion vector number of a second block are identical with each other, the motion vector decoding unit determines whether or not to set the second block as a candidate block in accordance with whether or not a reference index indicating a reference picture that the motion vector of the first block refers to and a reference index indicating a reference picture that the motion vector of the second block refers to are identical with each other.

Abstract: A metering compensation method for effectively increasing visibility of an image is applied to a monitoring camera apparatus. The metering compensation method includes acquiring a histogram of the image, setting a convergent target value and a minimal mapping value, utilizing the convergent target value and the minimal mapping value to set a weighting function, transforming the histogram into a weighted histogram via the weighting function for acquiring an intensity mean of the weighted histogram, and utilizing the convergent target value and the intensity mean to generate a first exposure compensation value. The first exposure compensation value can be used for determining whether to adjust an exposure parameter of the monitoring camera apparatus.

Abstract: An array sensor includes a sensor element array that includes a plurality of sensor elements, a signal processing circuit array that includes a plurality of signal processing circuits coupled to the corresponding sensor elements, and a resistor network that supplies bias voltages to the corresponding signal processing circuits, wherein different voltages are applied to at least two voltage application nodes in the resistor network.

Abstract: An audio video device (AVD) is activated post-sale using an unlock code issued during the purchase. The buyer connects to his home network and enters the unlock code issued in the store at the point of sale. Then a server associated with the seller can complete the transaction and unlock the AVD for full functionality. In the event the AVD is reported stolen before activation, it can be blocked from use. When in the reduced functionality mode” the AVD can remain in demonstration mode or other reduced functionality state (e.g., only works with HDMI1).

Abstract: Described herein are various technologies pertaining to an automated light field illumination container inspection and manufacture system. The system includes a plurality of cameras that capture images of a container when the container is illuminated by way of light field illumination. Bands in images that include reflections in the exterior surface of the sidewall are identified, and a determination is made as to whether the container is defective based upon the identified bands.

Abstract: A system described herein includes a first lens, a first image stabilization unit and a first image plane. When seen from the first lens in the direction of the first image plane, the order in which the elements are arranged along a first optical axis is as follows: first lens, first image stabilization unit and first image plane. The first image stabilization unit has at least one first inlet surface and at least one first outlet surface. The first inlet surface is oriented towards the first lens. The first outlet surface is oriented towards the first image plane. Furthermore, the first outlet surface is spaced apart from the first image plane in a range of 1 mm to 20 mm.

Abstract: An image encoding apparatus includes a plane conversion unit which generates, from image data of one frame of the moving image data, a plurality of planes each formed from a single component, a frequency conversion unit which generates a plurality of subbands for each plane by performing frequency conversion for each plane, a quantization unit which quantizes coefficients in each subband using a quantization parameter, an encoder which encodes the quantized coefficient data, and a control unit which updates the quantization parameter so that a code amount of the encoded data becomes equal to a target code amount set for each plane. The control unit updates the quantization parameter by accumulating a difference between the target code amount set for each plane and a generated code amount of each plane, and distributing the accumulated differences to the plurality of planes.

Abstract: A method is provided for coding a current image that has previously been partitioned into blocks. The method includes, for a current block that is to be coded: partitioning the current block at least once into a plurality of subblocks; and representing) the partitioning of current block in the form of a first digital information sequence. The coding method further includes predicting the partitioning of the current block relative to the partitioning of a block that has already been coded and then decoded and that is represented in the form of a second digital information sequence, by comparing the first and second sequences with each other or by comparing the corresponding partitionings with each other, and then by determining residual digital information representative of the comparison in application of a predetermined comparison criterion; and encoding the residual digital information as determined.

Abstract: There is provided an all-celestial imaging apparatus enabling imaging of images that enable estimation of depth information relating to an object to be imaged by suppressing any generation of occlusion. An all-celestial imaging apparatus that is an aspect of the present technique includes plural imaging parts each arranged being directed in a direction different from that of each other, and the plural imaging parts are arranged such that all imaging ranges on at least one circumference of the imaging ranges by the plural imaging parts are each overlapped by angles of view of two or more pairs of the imaging parts. The present technique is applicable to, for example, an all-celestial camera imaging images that are used in the case where the depth information on a distance to an object to be imaged that may be present in an optional direction of all azimuth directions of 360° is estimated.