Abstract: A system and method for calibrating a dynamic digital imaging system for the detection of defects in a moving product stream. The system has an elevated platform above a conveying unit for receiving a reference color tile. The elevated platform allows for the passage of products to be inspected on the below conveying unit surface such that calibration and re-calibration processes during image capturing may be accomplished on a continuous basis without interruption of the product stream.

Abstract: The present invention discloses a microscopy imaging structure with phase conjugated mirror and the method thereof. The afore-mentioned imaging structure produces a reverse focusing conjugated probe beam together with an original probe beam. These two probe beams meet at the focal point in the object body to be probed, and an interference pattern is produced. The interval between any two consecutive wave fronts in the interference pattern is then half of the wavelength of the original probe beam, and hence the vertical resolution of the image is improved. The present invention also applies a light modulator module on the probe beam to easily adjust the depth of the focal point of the probe beam and the phase conjugated reverse focusing probe beam in the object body. With the adoption of this invention, the size or position limitation of the target object is eliminated and the imaging resolution is also improved.

Abstract: In an apparatus adapted to scan a lower side of an electronic component being suction-held by a suction-holding nozzle, to perform image recognition of suction-held conditions of the electronic component, this invention is intended to perform a transfer operation under a condition that the suction-holding nozzle is arranged closer to an upper surface of a base, wherein the optical path directed downwardly from the suction-holding nozzle is bended in a lateral direction by a first optical path changing member and then further bended in another direction by a second optical path changing member to allow image-sensing means to capture an image of a lower surface of the suction-holding nozzle, and the electronic component being suction-held by the suction-holding nozzle is illuminated along the lateral optical path changed by the first optical path changing member.

Abstract: An example embodiment includes an apparatus for monitoring launch parameters of an object. The apparatus includes a transmitter optical subassembly (TOSA), a receiver optical subassembly (ROSA), a processing unit, and a camera. The TOSA includes at least one laser source configured to transmit a laser sheet along an expected flight path of an object. The ROSA is configured to receive light reflected from the object. The processing unit is configured to estimate a velocity of the object based at least partially on the received light. The camera is configured to capture one or more images of the object at a time in which the object passes through a field of view of the camera according to the estimated velocity.

Abstract: A system is provided that is usable in a processing system for decoding a sequence including a plurality of pictures, wherein the group of pictures includes an anchor picture serving as a reference for coding all of the plurality of pictures and at least one reference picture serving as a reference for coding at least some of the other of the group of pictures, the plurality of pictures defined in a plurality of hierarchical layers according to coding order. The coding includes coding an lth subset of the plurality of pictures of the first hierarchical layer according to an lth hierarchical layer picture complexity, and after coding the lth set of the plurality of pictures of the lth hierarchical layer, coding a [mutually exclusive] lth+1 subset of the plurality of pictures of a lth+1 hierarchical layer according to a second hierarchical layer picture complexity measure.

Abstract: The present disclosure relates to a method and apparatus for interpolating a reference picture and a method and apparatus for encoding/decoding a video using the same. The apparatus for interpolating the reference picture selects a plurality of filters for interpolating the reference picture and generates a reference picture having a target precision through a multi-stage filtering of the reference picture by using a plurality of filters. The compression efficiency of the video may be improved by interpolating a reference picture through the determination of a filter of a filter coefficient for interpolating the reference picture according to characteristics of the video and interpolating the reference picture through a multi-stage filtering or adaptively changing resolutions of motion vectors in the unit of predetermined areas.

Abstract: A system for identifying objects and events of interest uses one or more cameras with image processing capabilities. The system is includes multiple cameras configured to perform image processing of a scene from multiple angles to extract and transmit meta-data corresponding to objects or people in the scene. The cameras transmit the meta-data to a processing station that is configured to process the stream of data over time to detect objects and events of interest to alert monitoring personnel of objects or events in the scene.

Abstract: A data processing apparatus is provided for performing video decoding operations on blocks of video data, the data processing apparatus comprising: a programmable inverse transform unit configured to perform an inverse transform operation on a set of input values in response to a sequence of instructions, the programmable inverse transform unit comprising a first execution path and a second execution path arranged to perform data operations to implement the inverse transform operation, wherein the data operations performed by the first and second execution path are configured in dependence on the sequence of instructions, wherein the programmable inverse transform unit is configured to operate in a first mode in which each instruction in the sequence of instructions is interpreted using a first instruction length and causes the first execution path and the second execution path to be configured independently of each other, and the programmable inverse transform unit is configured to operate in a second mode i

Abstract: A device for decoding video data includes a memory configured to store video data, and at least one processor. The at least one processor may be configured to: determine luma residual samples for a block of video data, determine predictive chroma residual samples for the block of video data, scale the luma residual samples with a scale factor to produce scaled luma residual samples, and determine updated chroma residual samples based on the predictive chroma residual samples and the scaled luma residual samples.

Abstract: An encoder and method of encoding are provided for encoding at least one integral image representing at least one object in perspective in a scene and including a plurality of elemental images. The method of encoding includes generating a plurality of K sub-images on the basis of the plurality of basic images; arrangement of the sub-images in a predetermined pattern such as to form a multi-view image of the object, the views corresponding respectively to the sub-images; and adaptive compression of the multi-view image formed, as a function of the motion type of the object in the scene.

Abstract: A method and apparatus for vehicle operation assistance information management may include a vehicle, which may include a primary graphical display portion and a secondary graphical display portion. Vehicle operation assistance information management may include identifying vehicle operation assistance information, identifying an immanency, an urgency, and a utility for the vehicle operation assistance information. The urgency may indicate an advance urgency, and a graphical representation of the vehicle operation assistance information may be presented via the secondary graphical display portion. The urgency may indicate an advisory urgency or a warning urgency, a first portion of a graphical representation of the vehicle operation assistance information may be presented via the primary graphical display portion, and, subsequently, and a second portion of a graphical representation of the vehicle operation assistance information may be presented via the secondary graphical display portion.

Abstract: A digital holographic microscope is provided. The digital holographic microscope includes a light source, a grating, an image sensing device, and an optical module. The light source is configured for providing a light beam. The grating is disposed between the light source and a sample. The grating is configured for splitting the light beam into a reference light beam and an object light beam. The image sensing device is configured for collecting the reference light beam, and collecting the object light beam reflected from the sample. The optical module is disposed between the light source and the sample, and is configured for guiding the reference light beam to the image sensing device, and guiding the object light beam to the sample.

Abstract: The present disclosure relates to a method and apparatus for encoding/decoding a motion vector and a method and apparatus for encoding/decoding video using same.

Abstract: A video decoding apparatus includes a decoder to decode division information related to dividing a current block into subblocks, and reconstruct transform coefficients of each of the subblocks identified by the division information, and thereby generate transformed residual subblocks; an inverse transformer to inverse-transform each of the transformed residual subblocks, and thereby generate residual subblocks; a predictor to generate predicted subblocks by intra-predicting each of the subblocks; an adder to reconstruct the current block by adding the predicted subblocks to the residual subblocks corresponding thereto; and a first filter to perform deblocking-filtering on boundaries between the subblocks in a reconstructed picture including the reconstructed current block.

Abstract: Second-order orthogonal spatial intra-prediction may include generating a reconstructed frame by generating a plurality of reconstructed blocks by decoding a portion of the current encoded frame, generating a decoded residual block by decoding a current block from the current encoded frame, identifying a current pixel location in the current block, identifying reconstructed pixels in respective reconstructed blocks, wherein first and second reconstructed pixels are at respective oblique angle to the current pixel location, and a third reconstructed pixel at the second oblique angle to the first reconstructed pixel or at the first oblique angle to the second reconstructed pixel, determining a predictor pixel for the current pixel location using a difference between the third reconstructed pixel and a sum of the first reconstructed pixel and the second reconstructed pixel, and identifying a reconstructed pixel as a sum of the predictor pixel and a corresponding residual pixel.

Abstract: An image encoding and decoding method comprising: a coefficient calculator for calculating adaptive interpolation filter coefficient of a current frame; an image encoder for interpolating reference frames using the adaptive interpolation filter coefficient of the current frame and encoding the current frame using the interpolated reference frames; a filter flag encoder for generating and encoding a coefficient-inserted flag or coefficient non-inserted flag as a filter flag according to the adaptive interpolation filter coefficient of the current frame; a coefficient encoder for encoding the adaptive interpolation filter coefficient of the current frame when the filter flag is a coefficient-inserted flag; and a bit stream generator for generating and outputting a bit stream, which includes the encoded current frame and encoded filter flag, and further includes encoded adaptive interpolation filter coefficient of the current frame when the filter flag is the coefficient-inserted flag.

Abstract: A vision system for a vehicle includes a color camera disposed at a vehicle and having an exterior rearward field of view. The color camera includes an imaging array of photosensing pixels and at least one color filter disposed at or in front of at least some of the photosensing pixels. An image processor is operable to process image data captured by the color camera. Processing of captured image data by the image processor includes utilization of a color correction algorithm that includes a color correction matrix. The color correction matrix algorithm may utilize a 3×3 color correction matrix. The color correction algorithm may include a color correction matrix algorithm and a histogram algorithm that function to determine a color correction for the captured image data.

Abstract: The image display control device includes a thumbnail image display control unit that displays a thumbnail image of a tomographic image forming a three-dimensional image, a display instruction receiving unit that receives an instruction to display the three-dimensional image, and a tomographic image display control unit that displays a plurality of tomographic images on a display screen which is different from a display screen on which the thumbnail image is displayed such that the tomographic images are sequentially switchable when the instruction to display the three-dimensional image is received. The thumbnail image display control unit newly generates a thumbnail image of the tomographic image displayed immediately before the display of the tomographic image ends, changes the current thumbnail image to the new thumbnail image, and displays the new thumbnail image.

Abstract: First disparity information (disparity information corresponding to the nearest object reproduction position in a certain area of a picture display screen) and second disparity information (disparity information corresponding to the farthest object reproduction position in the certain area of the picture display screen) which are obtained for each of certain pictures of image data are inserted into a video stream, and the video stream is transmitted. On the basis of the first disparity information and the second disparity information, a receiving side is capable of checking whether or not disparity angles in a same-side direction and a crossing direction are within a certain range in which viewing does not cause any health problems, and reconfiguring left-eye image data and right-eye image data which form a stereo image if necessary.

Abstract: A video encoding method includes: determining a size of a current block to be encoded and encoding information for indicating the size of the current block; encoding division information related to dividing the current block into one or more subblocks; predicting a subblock divided from the current block by using an intra prediction mode corresponding to the subblock; generating a residual block by subtracting the predicted block from the subblock; transforming the residual subblock by using a transform size identical to a size of the subblock; and encoding information on transform coefficients of the transformed residual subblock.