1564 results about "Color data" patented technology

A graphics system including a custom graphics and audio processor produces exciting 2D and 3D graphics and surround sound. The system includes a graphics and audio processor including a 3D graphics pipeline and an audio digital signal processor. The graphics pipeline renders and prepares images for display at least in part in response to polygon vertex attribute data and texel color data stored as a texture images in an associated memory. An efficient texturing pipeline arrangement achieves a relatively low chip-footprint by utilizing a single texture coordinate / data processing unit that interleaves the processing of logical direct and indirect texture coordinate data and a texture lookup data feedback path for “recirculating” indirect texture lookup data retrieved from a single texture retrieval unit back to the texture coordinate / data processing unit. Versatile indirect texture referencing is achieved by using the same texture coordinate / data processing unit to transform the recirculated texture lookup data into offsets that may be added to the texture coordinates of a direct texture lookup. A generalized indirect texture API function is provided that supports defining at least four indirect texture referencing operations and allows for selectively associating one of at least eight different texture images with each indirect texture defined. Retrieved indirect texture lookup data is processed as multi-bit binary data triplets of three, four, five, or eight bits. The data triplets are multiplied by a 3×2 texture coordinate offset matrix before being optionally combined with regular non-indirect coordinate data or coordinate data from a previous cycle / stage of processing. Values of the offset matrix elements are variable and may be dynamically defined for each cycle / stage using selected constants. Two additional variable matrix configurations are also defined containing element values obtained from current direct texture coordinates. Circuitry for optionally biasing and scaling retrieved texture data is also provided.

A solid-state image sensor has a plurality of pixels, a read-out circuit and a signal processing section. The plurality of pixels includes a plurality of first pixels, a plurality of second pixels, a plurality of third pixels and a plurality of fourth pixels. The signal processing section includes a color acquisition section, a first judgment section configured to determine whether or not the white data value W in the target pixel block is smaller than a predetermined first set value, and a white color correction section configured to perform correction processing of the white color data value W in the target pixel block based on the following Expression (1) when the judgment result of the first judgment section is NO, and to output the white data value W by itself without performing the correction processing based on the Expression (1) when the judgment result of the first determination section is YES;W′=S1C1+S2C2+S3C3  (1)where each of S1, S2, and S3 is a coefficient that is determined based on a color balance.

A device for determining the surface topology and associated color of a structure, such as a teeth segment, includes a scanner for providing depth data for points along a two-dimensional array substantially orthogonal to the depth direction, and an image acquisition means for providing color data for each of the points of the array, while the spatial disposition of the device with respect to the structure is maintained substantially unchanged. A processor combines the color data and depth data for each point in the array, thereby providing a three-dimensional color virtual model of the surface of the structure. A corresponding method for determining the surface topology and associated color of a structure is also provided.

An image processing method is provided for generating multi-color data comprised of three primary-color sub-pixels and a brightness-enhancing sub-pixel, where a combination selected three at a time from these sub-pixels constituting a target pixel for the image processing method. First, a three-color pixel is converted into a four-color pixel, where the sub-pixels of the four-color pixel identical with those of the target pixel are represented by first numerical values, and the sub-pixel of the four-color pixel different to that of the target pixel is represented by a second numerical value. Then, the first numerical values are correlated with third numerical values discarded by neighboring pixels of the target pixel to determine the actual output of the target pixel.

There is provided a system which allows information related to a broadcasting program to be processed efficiently. The program related information related to the certain program created on the transmitter side is composed of Event Data, Channel Data, Character Data, CM data and the like and is converted into EPG_contents_data. Further, display related information concerning on a layout and the like in displaying the program related information created on the transmitter side on a screen is composed of Layout Data, Color Data, Font Data and Operation Data and is converted into EPG_control_data. The receiver side generates EPG_management_data as necessary from the EPG_contents_data and the EPG_control_data transmitted from the transmitter side and generates EPG_display_data which is display information from the EPG_contents_data and the EPG_control_data.

A technique for converting displayable objects of a graphics user interface (GUI) display into a code representation with minimal user intervention. The technique includes creation of the GUI display and analysis of each displayable object when prompted by the user to convert to a code representation. The analysis features accessing parameters of each displayable object to produce an object data file, a color data file storing colors used by the displayable objects of the GUI display and a bitmap data file to contain bitmaps of logos or images featured in the GUI display. These data files are complied with an implementation file featuring a software library to generate an executable program having the code representation of the GUI display.

A communication method of transmitting video data which may include a predetermined number of bits as a unit from a source device to a sink device in sync with pixel clock and using individual transmission lines for respective color data or the like, may include preparing video data for three-dimensional display including the video data for a left eye and the video data for a right eye; forming the data for the left eye and for the right eye including the predetermined number of bits per pixel respectively; adding one of the data for the left eye and data for the right eye to the other thereof per pixel; forming the data of one pixel including twice the predetermined number of bits and transmitting the data at a timing in sync with the pixel clock; and transmitting the data for three-dimensional display from the source device to the sink device.

Apparatus for image capturing has preview function for monitor-outputting an image before capturing image to be recorded, image processing section including band correcting section for controlling frequency characteristic of color data constituting image data, gamma correcting section for controlling gradation characteristic of image data, pixel interpolating section for interpolating pixels with unknown data of each color data constituting image data, and exposure control section for controlling exposure setting value. Capture image size, image data compression rate or subject image recording mode can be met before capturing an image. Controller is selected according to capture image size, image data compression rate or image recording mode set before capturing the image. When an image, captured with setting of small capture image size, is outputted in specified output size, an image provided with a more appropriate characteristic for appreciation can be obtained and reduction in image quality due to data compression can be suppressed.

The objective of the current invention is to restore color vision, in whole or in part, by electrically stimulating undamaged retinal cells, which remain in patients with, lost or degraded visual function. The invention is a retinal color prosthesis. Functionally, There are three main parts to this invention. One is external to the eye. The second part is internal to the eye. The third part is means for communication between those two parts. The external part has subsystems. These include an external imaging means, an eye-tracker, a head-motion tracker, a data processor, a patient's controller, a physician's local controller, a physician's remote controller, and a telemetry means. The imaging means may include a CCD or CMOS video camera. It gathers an image of what the eyes would be seeing if they were functional.Color information is acquired by the imaging means. The color data is processed in the video data processing unit. The color information is encoded by time sequences of pulses separated by varying amounts of time, and also with the pulse duration being varied in time. The basis for the color encoding is the individual color code reference. Direct color stimulation is another operational basis for providing color perception. The electrodes stimulate the target cells so as to create a color image for the patient, corresponding to the original image as seen by the video camera, or other imaging means.The physician's test unit can be used to set up or evaluate and test the implant during or soon after implantation at the patient's bedside.

An image processing circuit enables the accurate detection of the focal length for focusing by using color data. The image processing circuit generates image data representing brightness and each of the colors of red, green and blue, image data to be used for focusing is selected either automatically or manually from the image data representing the brightness and the respective colors, and the amount of the weight for each respective image data is set. Images are photographed while the optical system is driven to change its focal length. A focal length is calculated for each selected image data. Weight is applied to each one of the calculated focal lengths so as to calculate a final focal length. This not only ensures accurate measurement of the distance for focusing but also increases the possibility of focusing on a subject which is characterized by specific color data.

A method for correcting color shift in an imaging system, including an imaging object, and a standard color conversion lookup table associated with the imaging object, includes measuring a plurality of test patches to obtain color data associated with the imaging object. A signature color data lookup table is generated, based on the color data, and is combined with the standard color conversion lookup table to generate a composite color conversion lookup table for use with the imaging object.

A method and apparatus for encoding high dynamic range video by means of video compression is shown. The method comprises the steps of providing high dynamic range (HDR) tristimulus color data (XYZ) for each frame of the video and threshold versus intensity data for a human observer; constructing a perceptually conservative luminance transformation from continuous luminance data (Y) to discrete values (Lp) using said threshold versus intensity data for the human observer; transforming the HDR tristimulus color data into perceptually linear color data of three color channels (Lp, u′, v′) for obtaining visually lossless compressed frames; estimating motion vector of said consecutive frames of the video and compensating the difference of the tristimulus color data for performing an inter-frame encoding and an inter-frame compression; transforming the compensated differences of the tristimulus color data to frequency space data; quantizing said frequency space data; variable-length encoding of the quantized frequency space data and storing or transmitting a stream of visual data resulting from the encoded quantized frequency space data;

Systems and methods are provided for extracting features of a building from data having spatial coordinates. The method includes extracting one or more walls and roofs from the data; constructing a building model from the walls and roofs; extracting color data associated with the data and projecting the color data onto the building model; superimposing one or more images onto the building model; applying pattern recognition to extract one or more three-dimensional structural components of the building model; replacing identified three-dimensional structural components with the standard structural elements; comparing subsequent data sets to identify a changed object; and, extracting one or more poles in the building model's vicinity or along the edges of roads.