95 results about "Up scaling" patented technology

Adaptive up-sample filtering is used to improve compression efficiency of spatially scalable coding systems by more effectively predicting the high-resolution (enhanced-layer) video (or image) from the low-resolution lower-layer video (or image). Different up-sample filters adaptive to local image properties are selectively used for different portions of a low resolution frame to generate a better up-sampled image. Selection between different up-sample filters is determined by a variety of different information available to both the encoder and decoder. In one embodiment, the up-sample filters are selected by the encoder and then explicitly identified to the decoder. Other techniques are then used to minimize the cost of transmitting the up-sample filter identifiers. In alternative embodiments, the encoder and decoder independently make up-sample filters selections.

Adaptive up-sample filtering is used to improve compression efficiency of spatially scalable coding systems by more effectively predicting the high-resolution (enhanced-layer) video (or image) from the low-resolution lower-layer video (or image). Different up-sample filters adaptive to local image properties are selectively used for different portions of a low resolution frame to generate a better up-sampled image. Selection between different up-sample filters is determined by a variety of different information available to both the encoder and decoder. In one embodiment, the up-sample filters are selected by the encoder and then explicitly identified to the decoder. Other techniques are then used to minimize the cost of transmitting the up-sample filter identifiers. In alternative embodiments, the encoder and decoder independently make up-sample filters selections.

The invention discloses a single-image super-resolution reconstruction method based on a deep residual network. The method of the invention mainly comprises a first step of performing block extraction and pixel averaging processing on an image in a sample image database to obtain a corresponding high resolution and low resolution training image sets; a second step of constructing a deep convolutional neutral network with a residual structure for iterative training, and then inputting the training set obtained in the first step to the neural network constructed in the second step for iterative training; and a third step of according to a data model obtained by training, realizing the continuous up-scaling of the input low resolution image through the combination of iterative operation and an interpolation algorithm. By introducing a deep residual network and introducing an upsampling layer at the end of the network, the method of the invention accelerates the processing speed of the image up-scaling, enhances the display effect of the image details, obtains a better image super-resolution reconstruction effect, and has a wide range of applications in the image high definition display, image compression, security checks and other fields.

A system is provided in which IP or media content residing on or being streamed to a mobile phone is forwarded to a display. The media content supports a native resolution of the mobile phone that is significantly smaller than a native resolution of said display. The system has media content processing circuitry, which up-scales the media content to the display native resolution. The system forwards the up-scaled media content to the display, whereby the display provides the up-scaled media content to a viewer.

In this video game device, a three-dimensional game field 70 laterally extended around a tubular subject is provided. The 3D game field 70 is divided into display regions of vertically 12 lines by circumferentially 16 columns, and each display region is capable of displaying a panel. A two-dimensional field table 80 is structured by spreading the 3D game field 70 across a 2D plane, and is provided with a plurality of entries each corresponding to one of the display regions of the 3D game field 70. To the entries of the 2D field table 80, pattern data of the panels is stored, and texture data corresponding thereto is placed on the corresponding display region of the 3D game field 70. Compared to a conventional game device applying a 2D game field, the degree of freedom and the level of variety of a game are enhanced by the substantially up-scaled display range of a-screen-basis game field, and game descriptions can be more creative with a 3D appearance.

A method up-samples images in a reduced resolution video, wherein each image I(x, y) stores depths d at pixel locations (x, y). each depth image is scaled up to produce a corresponding up-scaled image. Then, image dilation, a median filter, image erosion, and a min-max filter are applied in order to produce a corresponding up-sampled image.

Provided are a method and an apparatus for image processing. A scene includes a low resolution depth image and a high resolution color image. A depth image up-scaler up-scales the depth image using an interpolation so as to improve the resolution of the depth image. A color-depth similarity based filter removes noise from the up-scaled depth image using the color image and the up-scaled depth image. A boundary sharpening filter converts a boundary between objects in the up-scaled depth image into a clearer boundary. The resolution of the depth image may increase to the level of the resolution of the color image by means of the depth image up-scaler, the color-depth similarity based filter and the boundary sharpening filter, and the depth of each pixel in the depth image may be adjusted.

This invention is a method applicable to an image processing device, which includes the steps of providing a preprocess module for extracting a high-frequency portion of an image inputted into the device, extracting a gradient of the image and decomposing the image into plane and edge regions according to a predetermined fixed threshold, and providing a composite up-scaling module for executing the magnification processes on the image and the high-frequency portion thereof respectively, wherein the magnification process of plane regions of the image and the high-frequency portion is based on a simple interpolation while the edge regions of the image and the high-frequency portion is based on both a smart interpolation and the simple interpolation. The magnification results of the image and the high-frequency portion are then processed by a fusion process, so as to output an image having sharp but not blocky edges, rich details and strong contrast.

The invention relates to an improved robustness in upscaling the resolution of regularly sampled multi-dimensional signals, where a single low-resolution signal is available. These methods are referred to as example-based super-resolution or single-image super-resolution. A method for super-resolving a single image comprises three stages. First, an interpolation-based up-scaling of the input image is performed, followed by a Local De-noising step in contour regions. The second stage comprises extrapolation through cross-scale block matching, wherein an extrapolated high-frequency band is obtained that is de-noised through regularization in the same contour regions. The third stage comprises adding the contributions of the low-frequency band of the high-resolution image and the extrapolated high-frequency band.

A method and system for efficient scaling in the transform domain, wherein transform coefficient data is provided as an input to a data processing system and scaled in the transform domain by application of a combined matrix. Some embodiments utilize discrete cosine transform data. One embodiment of the invention generates a combined matrix for one-dimensional scaling by selecting a rational scaling factor and matrix dimension value, generating a matrix with some zero values, applying a one-dimensional inverse transform, regrouping, and applying a one-dimensional forward transform. One application of the invention performs up-scaling operations, and another performs down-scaling operations. The invention also provides for two-dimensional scaling by selecting horizontal and vertical scaling parameters and generating first and second combined matrices responsive to the parameters and combining them into a single combined matrix. The invention may also incorporate a predetermined cost function.

The invention relates to a wind power plant group wind speed distribution prediction method based on correlation analysis and belongs to the field of electric power system operation and control. A wind power plant group correlation area division method based on a correction experience variation function is given with a space down-scaling thought, and a wind power plant group is divided into a plurality of correlation areas; on the basis, a space up-scaling thought is adopted, an experience accumulation distribution function is used, correlations between reference wind power plants and target wind power plants in the correlation areas are considered, and wind speeds of the target wind power plants are calculated by the aid of wind speeds of the reference wind power plants, and finally, wind speed curves of all the wind power plants in the wind power plant group are obtained. Therefore, the method has the advantages as follows: (1) the effect caused by the time delay factor is introduced, characteristics of the wind power plant group during actual operation are more conformed, and the prediction effect is better; (2) wind speed distribution of all the wind power plants in the wind power plant group can be effectively described with the space down-scaling and up-scaling thoughts.

An improved apparatus and method for flushing an auger-type crushed ice making machine prevents build up of scale and other contaminants. The system feeds a flushing liquid to the top of the extrusion head such that it flows down through the device, thereby cleaning the auger and sleeve. The flushing liquid may be water or a solution having chemicals that help to remove built up scale or other contaminants.

A display apparatus includes pixels, gate lines and data lines, a gate driver driving the gate lines, a data driver driving the data lines, and a timing controller controlling the gate and data drivers and applying a resolution control signal to the data driver. The data driver applies a first line data signal to the pixels connected to a first gate line of the gate lines from image data and a second line data signal to a second gate line of the gate lines based on the first line data signal in response to a shift start pulse signal when the resolution control signal indicates an up-scaling mode.

A method for converting an image in an image conversion apparatus is provided. The method includes receiving a stereo image, down-scaling the stereo image, performing stereo-matching by applying adaptive weight to the down-scaled stereo images, generating a depth map according to the stereo-matching, up-scaling the depth map by referring to an input image of original resolution, and generating a plurality of multi-view images by performing depth-image-based rendering with respect to the up-scaled depth map and the input image of original resolution. Accordingly, a plurality of multi-view images may be obtained with ease.

In an up-scaler and method for up-scaling an input image frame in vertical and horizontal directions and generating an up-scaled output image frame, the up-scaler includes a timing generator that generates an output clock signal and a sampling frequency converter that outputs a plurality of duplicated pixel data in response to the output clock signal. The timing generator generates the output clock signal such that a duration corresponding to a vertical active period of the up-scaled output image frame and a duration corresponding to a vertical active period of the input image frame are equal. The sampling frequency converter receives pixel data that forms the input image frame in response to an input clock signal, duplicates the pixel data in the vertical and horizontal directions as many times as a vertical scaling factor and a horizontal scaling factor, respectively, and outputs the duplicated pixel data in response to the output clock signal.

A graphics display adapter has a row interpolator circuit connected to receive the source pixel data synchronized at a first clock rate and to interpolate groups of pixels of row at a second clock rate. A row interpolated storage device receives and retains interpolated source pixel data of each row at the second clock rate. A column interpolator circuit extracts the interpolated source pixel data at a third clock rate. The column interpolator circuit then interpolates groupings of the interpolated source pixel data at the third clock rate and transmits the destination graphic pixel data for display. The second clock rate maybe equal to the first clock rate or the faster of the first and third clock rates.

In a method of monitoring the formation of a coating on a single particle (P), an apparatus is used which comprises means (2,5,6,9) for arranging said particle (P) at a given spatial location, and a fluid supply unit (3) adapted to apply a coating fluid to the particle (P) such that the coating is formed. Further, the apparatus has a measurement unit (4) which is adapted to perform a spectrometric measurement on the coating during formation thereof, and to derive a measurement value of at least one principle parameter related to the coating. This, such principle parameters, for example the thickness, thickness growth rate and physical and / or chemical properties related to the quality of the coating, as well as heat, mass and momentum transfer, can be continuously and non-invasively monitored during the coating process on the single particle (P). The results of such measurements can be used to understand the coating process on the single particle (P), and ultimately to control, up-scale and develop industrial full-scale coating plants.

A pathway lighting system has self-contained, battery up scaled lighting modules (20), each module including at least one secondary coil. A plurality of primary coils are housed within a carrier assembly (1) together with voltage circuitry (14). Primary and secondary coils, positioned in the carrier assembly and in the lighting modules and the respectively allow electricity to flow between these members. The secondary coil output voltage is able to be rectified with the use of a rectification circuit, housed in the lighting module. Upon a mains failure, a battery charger / changeover circuit would switch the power requirements of the light sources inside the pathway lighting module over to internal back up batteries.

The invention provides a superfine zirconium carbide ceramic fiber. The fiber adopts yttrium-containing PNZ as a zirconium source and adopts allyl phenolic aldehyde as a carbon source, and a structural formula of allyl phenolic aldehyde is represented as a formula (I). The invention further provides a preparation method of the superfine zirconium carbide ceramic fiber. Yttrium-containing PNZ is adopted as the zirconium source, allyl phenolic aldehyde is adopted as the carbon source, the components have better compatibility and stability, and elements reach molecular-level and are uniformly distributed; a prepared zirconium carbide precursor thread-throwing solution has adjustable rheological property, is good in spinning property and can be stored in a sealed manner at the room temperature for 1 month or longer. A centrifugal thread throwing method is adopted, equipment is simple, operation is convenient, cost is low, the superfine fiber with the diameter smaller than 3 mu m can be obtained, and up-scale production can be realized rapidly.

The present invention relates to method for spatial up-scaling of an original video frame comprising p rows and q colums of pixels, where p and q are integers. Said up-scaling method comprises a step of constructing high-low (HL), low-high (LH), and high-high (HH) virtual spatial frequency subbands comprising p rows and q colums of pixels from the use of high-pass filtering of the original video frame, considered as a low-low spatial frequency subband (LL), in horizontal, vertical, and both directions, respectively. Said up-scaling method further comprises a step of applying an inverse wavelet transform (IWT) to the constructed subbands and to the original video frame in such a way that an up-sampled version of the original image is obtained.

Metal nano articles were incorporated into wood. Ionic liquids were used to expand the wood cell wall structure for nanoparticle incorporation into the cell wall structure. Nanoparticles of elemental gold or silver were found to be effective surface enhanced Raman spectroscopy (SERS) imaging contrast or sensing agents. Nanoparticles of elemental iron were found to be efficient microwave absorbers and caused localized heating for disrupting the integrity of the lignocellulosic matrix. Controls suggest that the localized beating around the iron nanoparticles reduces losses of cellulose in the form of water volatiles and CO2. The ionic liquid is needed during the incorporation process at room temperature. The use of small amounts of ionic liquid combined with the absence of an ionic liquid purification step and a lower energy and water use are expected to reduce costs in an up-scaled pretreatment process.

The present invention provides an image processing device, a display device, an image processing method, a program and a recording medium. The image processing device (10) comprises an up-scale circuit (11) for up-scaling the resolution of a picture signal (X) (input image data) to high resolution is provided with a redistribution circuit (12) for redistributing the gradation values of the respective plural divided pixels up-scaled in the up-scale circuit (11) corresponding to one pixel of the picture signal (X) between the plural divided pixels. As a result, the image processing device for converting the resolution of the input image data into high resolution generates a high-resolution image and improves a view angle.

A temperature-strain integrated measuring method in high-temperature tension test comprises the following steps: 1) establishing a relation between gray scale and temperature; 2) in the calibration stage: (1) heating material to be detected, collecting temperature change data of points to be measured by a two-color thermometer, and collecting image data simultaneously by an industrial camera; (2) converting the image data into a grey-scale map in a computer and extracting the grey level of the tested points; (3) fitting a formula according to the gray level data and the temperature data; and (4) determining parameters A and B; and 3) in the measuring stage: (1) extracting initial coordinates and initial grayscale characteristics of two mark points in an initial grey-scale map; and (2) converting the grey-scale map into a temperature map according to the relation between gray scale and temperature and the parameters A and B obtained in the calibration stage, so that full-field temperature can be obtained in real time. Meanwhile, by utilizing the initial grayscale characteristics of the two mark points and through an initial scale distance L and a follow-up scale distance L', scale distance change delta L can be obtained, thereby obtaining axial strain delta L / L. Through the utilization of the two-color thermometer and the high-resolution industrial camera, both high-precision full-field high temperature measurement and high-precision strain measurement are realized.

A high speed data serial connection interface apparatus, CPRI transmitting and receiving methods thereof are disclosed. A high speed data serial connection interface apparatus according to the present invention includes: a data transmitter configured to count a continuous NCB of 0 or 1 in an input data block, select an LSI value, and perform up scaling on data in the block in accordance with the selected LSI value to transmit the data through an optical fiber in accordance with a CPRI (common public radio interface) protocol; and a data receiver configured to receive the data transmitted by the data transmitter, restore the LSI value from the received data, and perform down scaling on the received data in accordance with the restored LSI value to restore original data.

Mapping is performed of chemostratigraphic signatures of hydrocarbon reservoirs in three dimensions. Up-scaled chemostratigraphic data from well cuttings and well cores are tied with high-resolution elastic wireline data at well locations in the reservoir. The wireline data is used to determine suitable seismic attributes for mapping the desired chemostratigraphic property, and are obtained by performing pre- and / or post-stack inversions. A multi-attribute template, derived from the well data, is developed to characterize the reservoir in terms of its chemostratigraphic properties. The seismic data is then inverted to map the chemostratigraphic signatures of reservoir in three dimensions.

The present invention relates to a mobile terminal for controlling dynamic resolution, comprising: a display unit for receiving a user input for executing an application including a plurality of objects; a memory for storing setting information displaying, at a first resolution, a screen on the display unit; and a control unit for receiving information on a plurality of resolutions supported by the application, selecting a second resolution, which is the resolution of an execution screen on which the application is executed, on the basis of the first resolution and the plurality of resolutions, configuring the execution screen by synthesizing the plurality of objects with a system UI according to the second resolution, and up-scaling the configured execution screen according to a ratio of the first and second resolutions so as to display the up-scaled execution screen on the display unit. Therefore, dynamic resolution can be controlled.

This invention relates to a method for image enhancement, comprising a first step (41) of distinguishing blurred and non-blurred image portions of an input image, and a second step (42) of enhancing at least one of said blurred image portions of said input image to produce an output image. Said blurred and non-blurred image portions are for instance distinguished by comparing (416) the differences (415) between a linearly up-scaled (414) version of the down-scaled (411) input image and the input image, and the differences (413) between a non-linearly up-scaled (412) representation of the down-scaled input image and the input image. Said blurred image portion is for instance enhanced by replacing (42) it with a portion of a non-linearly up-scaled representation of the down-scaled input image. The invention also relates to a device, a computer program, and a computer program product.