360 results about "Color intensity" patented technology

The invention relates to methods and materials for controlling stability and color intensity in an electrophoretic display element. Filler particles in the electrophoretic display element, serves as a medium that the electrophoretic particles must travel through during switching between optical states of the display. The filler particles provide improved control over the color intensity of the electrophoretic display element. In addition, the filler particles create resistance to the migration of the electrophoretic particles, thereby improving the bistability of the electrophoretic displays and inhibiting settling of the electrophoretic particles. Also, migration resistance provided by the filler particles can enable threshold addressing of an electrophoretic display.

A display provides increased contrast and resolution via first LCD panel energized to generate an image and a second LCD panel configured to increase contrast of the image. The second panel is an LCD panel without color filters and is configured to increase contrast by decreasing black levels of dark portions of images (making them blacker or darker) using polarization rotation and filtration. Preferably, the second LCD panel is of higher resolution than the first LCD panel. The panels may be directly illuminated or edge lit, and may be globally or locally dimmed monochrome or multi primary lights that may also include individual control of color intensities for each image or frame displayed. The panels may be placed in any order, but preferably are arranged such that active layers in each panel are as close together as possible. Brightness is maintained by the combination of reusing polarization between the panels and by not going through more than one set of color filters. Improved contrast is a result of using multiple light modulators in series.

A scalable video bitstream may have an H.264/AVC compatible base layer and a scalable enhancement layer, where scalability refers to color bit depth. The H.264/AVC scalability extension SVC provides also other types of scalability, e.g. spatial scalability where the number of pixels in BL and EL are different. According to the invention, BL information is upsampled in two logical steps, one being texture upsampling and the other being bit depth upsampling. Texture upsampling is a process that increases the number of pixels, and bit depth upsampling is a process that increases the number of values that each pixel can have, corresponding to the pixels color intensity. The upsampled BL data are used to predict the collocated EL. The BL information is upsampled at the encoder side and in the same manner at the decoder side, wherein the upsampling refers to spatial and bit depth characteristics.

An image processing apparatus according to the present invention includes: a color and polarization obtaining section 101 including a single-chip color image capture element with a color mosaic filter and a patterned polarizer in which a number of polarizer units, of which the polarization transmission planes define mutually different angles, are arranged adjacent to each other within each single color pixel; a color information processing section 102 for getting average color intensity information by averaging the intensities of the light rays that have been transmitted through the polarizer units within each said single color pixel; and a polarization information processing section 103 for approximating, as a sinusoidal function, a relation between the intensity of light rays that have been transmitted through the polarizer units within each said single color pixel and the angles of the polarization transmission planes of the polarizer units.

Methods of reducing perceived image crosstalk in a multiview display. One method includes providing an image stream to a display having a horizontal dimension that extends from a first side of the display to an opposing second side of the display. The image stream includes a temporal sequence of images where at least a first image view and then a second image view are displayed on the display in a time sequential manner. The temporal sequence of images are conditioned before being displayed in order to reduce perceived displayed image crosstalk between the first and second image views. The conditioning includes modifying a color intensity of at least selected pixels along the horizontal dimension based on a non-constant crosstalk correction function for the horizontal dimension.

An instantly controllable LED light apparatus provides an LED array (34) formed of red, green and blue LEDs in a regular arrangement. The apparatus also provides a unitary power supply/controller (4) disposed within a unitary housing (20) that is coupled only to the LED array (34) and a power source (56) in one embodiment. The power supply/controller (4) includes a memory device (64) such that, when a button (62) is pressed on the control panel (18) of the power supply/controller (4), a desired illumination color is instantly produced by the combination of the red, green and blue LEDs of the LED array (34).

Magnified and/or reduced areas of a display are easily determined by the shades of color and a pattern densities which correspond to the magnification or reduction ratio of areas of the display. The areas that have been magnified and/or reduced are presented by varying color intensity within areas reduced in size displayed with a deep hue in color to indicate that the area is compressed and a magnified area is displayed with a lighter color to indicate its expansion. Moreover, images of the display can be presented with a specification corresponding to each magnification or reduction ratio by linking the display with a movement of a pointing device, thus realizing a very easy-to-operate user interface.

A present novel and non-trivial system, apparatus, and method for presenting a monochrome, three-dimensional image of terrain on a Head-Up Display (“HUD”) unit is disclosed. Based upon aircraft navigation and terrain data, an image data set representative of a lighted solid image of terrain comprised of a plurality of intensities of one color may be generated. The image data set may be determined as a function of terrain data and color intensity data, where the color intensity data could be comprised of one or more shading effects, one or more texturing effects, or a combination of both. Based upon the image data set, a three-dimensional perspective of a terrain scene outside the aircraft may be presented to the pilot.

An image processing apparatus according to the present invention includes: a color and polarization obtaining section 101 including a single-chip color image capture device that has a color mosaic filter 201 and a patterned polarizer 202 in which a number of polarizer units, having polarization transmission planes defining mutually different angles, are provided for multiple pixels of the same color (G) in the color mosaic filter 201; a polarization information processing section 103 for approximating, as a sinusoidal function, a relation between the intensities of light rays that have been transmitted through the polarizer units for the G pixels and the angles of the polarization transmission planes of the polarizer units; and a color mosaic interpolation section 103 for generating a color intensity image by performing color intensity interpolation and getting a color intensity that cannot be obtained at a pixel of interest.

Embodiments comprise a device that can efficiently produce a highly resolved intensity profile that can be easily switched to various specific configurations with binary word strings defining output intensities that after summation will be combined to form a single colors intensity depth. Arraying these devices allows an image line of single color pixels to be efficiently produced without gross scintillation effects. The non-coherent output is desirable in this application as it reduces scintillation effects on the screen or final image.

There are provided a liquid composition for making pigment fixed having a high resistance to rubbing and a good dry-cleanability; an ink set including the liquid composition for making pigment fixed and an ink composition excellent in terms of color intensity, discharge stability, and adhesiveness; and a method for producing ink-jet-recorded matter on a fabric having a high resistance to rubbing and good dry-cleanability using the liquid composition for making pigment fixed and the ink composition.

The liquid composition for making pigment fixed according to the present invention contains at least a reactant and polymer fine particles synthesized from an alkyl (meth)acrylate and/or cyclic alkyl (meth)acrylate, the glass transition temperature and acid value of the liquid composition being equal to or lower than −10° C. and equal to or lower than 100 mg KOH/g, respectively.

Apparatus and method for monitoring a prostate in a human body in which a fluid flows and which is characterized by a change in the prostate with time in space for the purpose of diagnosing a prostate condition, particularly cancer. A preselected place in the prostate is monitored to collect data at two or more time points correlated to a prostate event. The data is indicative of a prostate parameter that varies with time as a function of at least two variables related to prostate wash-in and wash-out behavior. A calibration map is made on a calculated basis with each pixel or voxel representative of a color hue indicative of wash-out behavior and a color intensity indicative of wash-in behavior. When a satisfactory map is obtained, the collected data is processed on the basis of the map to obtain an image of the preselected place with each spatial unit thereof correlated with a color hue and a color intensity. Software and a data processing system are provided to develop the calibration map. The calibration map and image of the preselected place are also novel implementations.

The invention provides a method for characterizing the color of characteristic tobacco by place of origin. The method is characterized by comprising the following steps: statistically regarding the random distribution of colors on the surface of tobacco as a fractal structure, and acquiring the high-accuracy digital image of the tobacco and carrying out the background removing and segmenting treatment; calculating the fractal dimensions corresponding to different threshold parameters of each color intensity (red, green, blue and luminance) of the tobacco, taking the fractal dimensions as the indexes for describing the distribution of the colors on the surface of tobacco on a quantified basis, and plotting the fractal dimension variation curve of each color intensity, which can reflect the distribution of the colors on the surface of the tobacco on an overall basis; and characterizing the color of characteristic tobacco by place of origin by using the fractal dimension variation curve. The method for establish the characterization of the color of the tobacco can reflect the characteristics of spatial distribution of colors and include the characteristic of accumulation. The fractal dimension variation curve can reflect the distribution of the colors on the surface of the tobacco on an overall basis, thereby reflecting the provincial characteristics in the color expression of the tobacco in different places of origin in China.

Any issues associated with manufacture of a part are identified and highlighted on a part rendering. A software method and system then uses a visual change cue on the part rendering for communicating the manufacturability issues to the customer. The preferred visual change cue is a throbbing of the highlighting of the manufacturability issue, with the throbbing occurring in both color intensity and size. The part rendering depicts the part translucently, so throbbing manufacturability issues can be readily identified even if obscured behind a more-forward face of the part.

A method of determining the concentration of an analyte of interest in breath. The method includes obtaining a disposable cartridge comprising a reaction chamber, a liquid chamber, and a window to permit determination of a color intensity in the reaction chamber, directing a volume of breath into the cartridge, and initiating a sequence whereby liquid is released from the liquid container into the reaction chamber to cause a reaction which produces a change in the intensity of a color viewable through the window. The intensity of the color corresponds to the concentration of the analyte of interest. The reaction progresses through a kinetic phase and eventually reaches equilibrium. The sequence additionally includes measuring the intensity of the color at a point in the kinetic phase, to determine the concentration of the analyte of interest in breath.

The invention relates to blueberry ice wine and a manufacturing method thereof. The blueberry ice wine is obtained through fermentation brewing by mixed fermentation liquid formed by 62 percent of blueberry juice, 15 percent of bramble juice, 5 percent of strawberry juice, 8 percent of Shuanghongshan grape juice and 10 percent of Vidal grape juice in percent by weight. The invention adopts the blueberry, the bramble, the strawberry and the grape with rich functional ingredients as major raw materials to be fermented after being mixed, and uses the technology such as advanced low-temperature and temperature-control fermentation, pulsed light sterilization and the like to solve the technical problems of high acidity, low color intensity, poor mouth feeling and serious nutrient ingredient loss in the blueberry ice wine brewing process. The products are limpid and transparent, the fruit fragrance is dense, rich and mellow, and the wine is sweet, smooth and tasty, and has the unique features of the blueberry ice wine. In addition, the invention also has the advantages of sanitary, safe and simple operation process, low energy consumption and no pollution.

The present invention provides an automatic exposure method applied to a mobile terminal. The mobile terminal includes a color camera and a black-and-white camera. The automatic exposure method comprises the steps of obtaining the color image of the color camera and the black-and-white image of the black-and-white camera, wherein the two images are acquired synchronously; calculating the color intensity value of the color image and the black-and-white intensity value of the black-and-white image; according to the color intensity value of the color image and the black-and-white intensity value of the black-and-white image, adjusting the exposure parameters of the color camera; according to the adjusted exposure parameters of the color camera, controlling the exposure of the color camera. The present invention also provides a corresponding mobile terminal. Based on the automatic exposure method of the present invention, the exposure parameters of the color camera can be adjusted based on the combination of the color camera and the black-and-white camera, so that the exposure setting for the current scene can be configured more scientifically. The more accurate exposure is realized. Therefore, the problem in the prior art that the color camera is small in dynamic range so as to cause the overexposure/over-dark condition of the local region of a photographed image can be effectively solved.

A scalable video bitstream may have an H.264/AVC compatible base layer and a scalable enhancement layer, where scalability refers to color bit depth. The H.264/AVC scalability extension SVC provides also other types of scalability, e.g. spatial scalability where the number of pixels in BL and EL are different. According to the invention, BL information is upsampled in two logical steps, one being texture upsampling and the other being bit depth upsampling. Texture upsampling is a process that increases the number of pixels, and bit depth upsampling is a process that increases the number of values that each pixel can have, corresponding to the pixels color intensity. The upsampled BL data are used to predict the collocated EL. The BL information is upsampled at the encoder side and in the same manner at the decoder side, wherein the upsampling refers to spatial and bit depth characteristics.

A system for the accurate measurement and control of image color density on an operating printing press. The method and apparatus control the printing of a multicolored image by controlling the amount of each of the inks used to print an image based on the color densities of each of the inks detected in printed images. The process includes controlling the positioning and linear movement of a strobe and a digital video camera across a substrate having images printed thereon; illuminating the images with a strobe; selecting and acquiring the images via a digital video camera and producing a digitized representation thereof; selecting a portion of the images; measuring and analyzing the color intensity of the selected portion of the images and producing reflective density values thereof, and storing said reflective density values in a first memory; comparing the reflective density values for the portion of the images to standard density values in a second memory for the portion of the images.