62results about How to "Keep the quality" patented technology

Methods and systems for real-time video processing can be used in video conferencing to modify image quality of background. One example method includes the steps of receiving a video including a sequence of images, identifying at least one object of interest (e.g., a face) in one or more of the images, detecting feature reference points of the at least one object of interest, and tracking the at least one object of interest in the video. The tracking may comprise aligning a virtual face mesh to the at least one object of interest in one or more of the images. Further, a background is identified in the images by separating the at least one object of interest from each image based on the virtual face mesh. The background is then modified in each of the images by blurring, changing a resolution, colors, or other parameters.

A method of transforming output formats of video data without degrading display quality. Video data include a plurality of first display data corresponding to a plurality of first odd fields and a plurality of second display data corresponding to a plurality of first even fields. The first display data and the second display data are interlaced to form a plurality of first frames corresponding to a first resolution. The method includes deinterlacing the first and second display data to generate a plurality of third display data, adjusting the third display data for making the third display data correspond to a second resolution, and extracting a plurality of fourth display data corresponding to a plurality of second odd fields and a plurality of fifth display data corresponding to a plurality of second even fields from the third display data.

Methods and systems for real-time video processing can be used in video conferencing to modify image quality of background. One example method includes the steps of receiving a video including a sequence of images, identifying at least one object of interest (e.g., a face) in one or more of the images, detecting feature reference points of the at least one object of interest, and tracking the at least one object of interest in the video. The tracking may comprise aligning a virtual face mesh to the at least one object of interest in one or more of the images. Further, a background is identified in the images by separating the at least one object of interest from each image based on the virtual face mesh. The background is then modified in each of the images by blurring, changing a resolution, colors, or other parameters.

An adjustment of a transfer of printing ink is accomplished by arranging a first roller in an inker unit and by using that first roller to transfer ink to a forme cylinder. A temperature is adjusted on an outer surface of the first roller by the use of a first temperature control unit which includes an adjuster device. The adjuster device also adjusts a temperature to be set on an outer surface of the forme cylinder by the use of a second temperature control unit. These two temperature control units adjust parameters of the printing ink through the controls of the outer surfaces of their associated first roller and forme cylinders. The parameters of the printing ink which are adjusted are preferably the ink's tackiness and its viscosity.

A panel-type television whose colors and image qualities of OSD portions are kept intact and the qualities of images other than the OSD portions are adjusted is provided. The panel-type television includes an image quality adjustment circuit 30a that performs a specified image quality adjustment processing on input image signals; a delay circuit 30b that delays input image signals by the time needed for the image quality adjustment circuit 30a to perform image quality adjustment processing; and a switching 30c that switches between the image quality adjustment circuit 30a and the delay circuit 30b so that image signals are input to either of the circuits according to the control of a microcomputer 60, wherein the microcomputer 60 inputs image signals for OSD display areas to the delay circuit 30c and image signals other than those for OSD display areas to the image quality adjustment circuit 30a.

Methods and systems for real-time video processing can be used in video conferencing to modify image quality of background. One example method includes the steps of receiving a video including a sequence of images, identifying at least one object of interest (e.g., a face) in one or more of the images, detecting feature reference points of the at least one object of interest, and tracking the at least one object of interest in the video. The tracking may comprise aligning a virtual face mesh to the at least one object of interest in one or more of the images. Further, a background is identified in the images by separating the at least one object of interest from each image based on the virtual face mesh. The background is then modified in each of the images by blurring, changing a resolution, colors, or other parameters.

A panel-type television whose colors and image qualities of OSD portions are kept intact and the qualities of images other than the OSD portions are adjusted is provided. The panel-type television includes an image quality adjustment circuit 30a that performs a specified image quality adjustment processing on input image signals; a delay circuit 30b that delays input image signals by the time needed for the image quality adjustment circuit 30a to perform image quality adjustment processing; and a switching 30c that switches between the image quality adjustment circuit 30a and the delay circuit 30b so that image signals are input to either of the circuits according to the control of a microcomputer 60, wherein the microcomputer 60 inputs image signals for OSD display areas to the delay circuit 30c and image signals other than those for OSD display areas to the image quality adjustment circuit 30a.

An image display system includes a first polarizer, a first substrate, a liquid crystal (LC) layer and a second substrate. The first polarizer is disposed on the first substrate. The LC layer has a plurality of LC cells each having an optical axis parallel to an absorbing axis of the first polarizer. The second substrate has a plurality of light transmitting zones and a plurality of light reflecting zones. A plurality of reflectors is disposed within the light reflecting zone. The LC cells are horizontally disposed between the first substrate and the second substrate. The LC cells corresponding to the light reflecting zones are driven in a normally white mode, while the LC cells corresponding to the light transmitting zones are driven in a normally black mode.

A display device includes a display unit, a touch unit, a backlight unit and an electrophoresis unit. The touch unit is disposed over the display unit, the backlight unit is disposed under the display unit and the electrophoresis unit is disposed on the display unit, in which the electrophoresis unit includes a substrate, multiple display electrodes, at least one storage electrode, a gate electrode and multiple charged particles. The substrate has an active region and a peripheral region connecting the active region, the display electrodes are disposed at the active region of the substrate and arranged in a same interval, the storage electrode is disposed at the peripheral region of the substrate, the gate electrode is disposed at the peripheral region of the substrate and located between the display electrodes and the storage electrode, and the charged particles are disposed on the substrate have with mirror reflective property.

Disclosed herein is a radio transmission device comprising data inputting means for inputting transmission data, data storing means for storing the inputted transmission data temporarily, data compression means for reading data from the data storing means to compress the data, and data transmitting means for transmitting the compressed data through a radio line. With this configuration, a real-time signal in a radio transmission system, in which effective throughput is not guaranteed like ACL link of Bluetooth can be transmitted and received. Delay of data transmission caused by a change in throughput of the line is absorbed by the data storing means. In addition, controlling a compression rate in response to the change in throughput enables transmission with an optimum data rate.

The present invention discloses a microphone comprising a first electrode, a second electrode, a printed circuit board and a shielding layer. The microphone is configured into a mobile communication device. The shielding layer located on the printed circuit board is disposed on the microphone. When the mobile communication device charges with an AC power supply and communicates with others simultaneously, the shielding layer can diminish the 50˜60 Hz noise produced by the AC power supply. Owing to the shielding layer reduces the EMI effect; the talking quality of the mobile communication device is thereby enormously improved.

There are provided a data compression apparatus and a data compression program capable of performing new and preferable compression processing applicable to compression of CT data. They are provided with: a thinning processing section which creates, by cyclically thinning out a numeric value from the sequence of numeric values constituting the data to be compressed, first data to be compressed which is constituted by a sequence of the numeric values taken out from the data to be compressed by the thinning out, and second data to be compressed which is constituted by a sequence of the remaining numeric values; a lossless compression section which performs lossless compression processing for the first data to be compressed which has been created by the thinning processing section; and a lossy compression section which performs lossy compression processing for the second data to be compressed which has been created by the thinning processing section.

An arrangement, method, and node for configuring subscriber lines in a digital access network. A configuration tool downloads configuration parameters from the network into the access nodes, which configure the subscriber lines according to the configuration parameters. An automated monitoring tool monitors performance parameters for the subscriber lines. The monitoring tool compares a value of a first monitored performance parameter on each subscriber line with a predefined threshold value, and based on a result of the comparison, either changes a value of a first configuration parameter or repeats the monitoring of the first performance parameter.