279 results about "Secondary color" patented technology

Methods, systems and machine readable media for displaying (e.g., information from multiple calendars) using different secondary colors generated according to primary colors in a data processing system. In one exemplary method, a calendar interface is displayed on a display device, wherein the calendar interface is capable of displaying calendar events for a user, and a control interface is displayed, which control interface allows the user to selectively display calendar events simultaneously from at least two calendars of the user in the calendar interface. Each of the calendars can have a primary color for display; and, secondary colors are automatically determined based on the primary color for the user interface elements associated with a calendar.

Gamut-mapping from a source device to a destination device is performed in a perceptually linear color space such as CIECAM02 by separating a source image into primary color components and processing each primary component separately by mapping a source primary hue leaf with a destination primary hue leaf. The mapped primary components are then summed and a resultant destination image is obtained. Alternatively, hue rotation is performed by determining a relative position of an input color between the nearest primary and the nearest secondary color in a source hue wheel. The determined relative position in the source hue wheel is used to find a corresponding location in a destination hue wheel so that the hue angle for obtaining the destination hue leaf can be determined. In both processes, the source and destination hue leafs are mapped using a cusp-to-cusp mapping with a shear mapping process being used to pull in the remaining colors. Finally, results of the mapping process are converted from device-independent color appearance space values to tristimulus values, and from tristimulus values to a color space of the destination device.

A graphical user interface includes a primary color palette including a first plurality of colors and a secondary color palette including a second plurality of colors. A first color is defined as a primary color and a second color is defined as a secondary color. The secondary color is different from the primary color. The graphical user interface also includes a plurality of styles, with a style defined as an initial style. The graphical user interface further includes an intensity scale ranging from a minimum intensity value to a maximum intensity value. An indicator is positioned in association with an initial intensity value. Moreover, the graphical user interface includes a display tile including an initial pattern that is displayed based on the primary color, the secondary color, and the initial style and a subsequent pattern that is modified from the initial pattern based on the initial intensity value.

Methods, systems and machine readable media for displaying (e.g., information from multiple calendars) using different secondary colors generated according to primary colors in a data processing system. In one exemplary method, a calendar interface is displayed on a display device, wherein the calendar interface is capable of displaying calendar events for a user, and a control interface is displayed, which control interface allows the user to selectively display calendar events simultaneously from at least two calendars of the user in the calendar interface. Each of the calendars can have a primary color for display; and, secondary colors are automatically determined based on the primary color for the user interface elements associated with a calendar.

The present invention relates to a color image forming device for forming toner images of a plurality of colors on a medium, and is for improving second transfer efficiency from an intermediate transfer body to the medium. The device has image forming units (12-1 to 12-4) for forming the toner images of the plurality of colors on at least one image bearing body (14-1 to 14-4) by a plurality of developing units (22-1 to 22-4) respectively accommodating toner of different colors; an intermediate transfer body (24); primary transfer means (38-1 to 38-4) for primary transferring the toner images of the plurality of colors onto the intermediate transfer body sequentially for the respective colors; and secondary transfer means (45) for secondary transferring the toner images of the plurality of colors on the intermediate transfer body onto the medium. The image forming units form the toner images of the plurality of colors so that the potentials of toner layers transferred onto the intermediate transfer body (24) are progressively lower in the order in which the plurality of colors are transferred. Since the potential of the toner layer directly adhered to the intermediate transfer body is higher, the directly adhered toner layer becomes easier to be secondary-transferred, and thereby, the secondary transfer efficiency is improved and the reproducibility of the secondary color is improved.

A lamp in a color management system provides light to a color wheel having color filter segments that transmit light having a secondary color, namely cyan, magenta, and yellow. A light integrator with a polarizing element, such as a polarization converter or polarizing filter, provides a beam of the secondary color. A primary color separator, such as second color wheel, transflective dichroic beamsplitter, or color-sensitive polarizing switch in combination with an input polarizing beamsplitter, separates the secondary color beam into a first polarized primary color beam and a second polarized primary color beam, which are directed to first and second imager panels. A beam combiner combines the first polarized primary color beam from the first imager and the second polarized primary color beam from the second imager to form a projection beam.

[Problem] To provide a two-color print data generating apparatus, two-color print data generating method, and data storage medium for generating two-color print data based on color-converted image data in which the color of each pixel in full-color data that is the print object is converted to a print color printable by means of a background color, main color, or secondary color. [Means for solving the problem] color-reduced image data generator 201 converts data for a full-color image that is the print object to reduced-color image data reduced to a specific number of colors. color conversion unit 202 generates color-converted image data in which the specified colors to which the reduced-color image data is reduced are converted to colors that can be printed by the printer. print data conversion unit 203 converts the color converted color-converted image data to two-color print data that can be printed using two colors. color conversion selection unit 204 sets the color conversion method and sets specific color conversion parameters based on the selected color conversion method.

A method comprises receiving scene model data including a scene geometry model and a plurality of pixel data describing objects arranged in a scene. The method generates a primary ray based on a selected first pixel data. In the event the primary ray intersects an object in the scene, the method determines primary hit color data and generates a plurality of secondary rays. The method groups the secondary packets and arranges the packets in a queue based on the octant of each direction vector in the secondary ray packet. The method generates secondary color data based on the secondary ray packets in the queue and generates a pixel color based on the primary hit color data, and the secondary color data. The method generates an image based on the pixel color for the pixel data.

A pair of dual complementary optics having a first lens and a second lens wherein the first lens has a gradient of a multiplicity of bands, the uppermost series of bands having a primary color embedded therein and the lowermost series of bands having a complementary secondary color embedded therein, the second lens having the inverse color embedded therein so that a primary color in the first lens is aligned with a secondary color in the second lens and a secondary color in the first lens is aligned with a primary color in the second lens. The color correction units are created such that the uppermost band has the largest amount of color correction units gradually decreasing to the lowermost band of the same color having the least amount of color correction units and thereafter, the second lower color has the lowest amounts of color correction units in the uppermost band of the secondary color gradually increasing to the greatest amount of color correction units in the secondary color in the lowermost band with the inverse in the second lens so that the lens is darkest on top and on the bottom and is lightest in the middle. Each lens is capable of either transmitting more than fifty percent of visible light in both wavelength ranges 400–550 nm and 550–750 nm or is capable of transmitting less than fifty percent of the visible length in both wavelength ranges 400–500 nm and 550–750 nm.

A method comprises receiving scene model data including a scene geometry model and a plurality of pixel data describing objects arranged in a scene. The method generates a primary ray based on a selected first pixel data. In the event the primary ray intersects an object in the scene, the method determines primary hit color data and generates a plurality of secondary rays. The method groups the secondary packets and arranges the packets in a queue based on the octant of each direction vector in the secondary ray packet. The method generates secondary color data based on the secondary ray packets in the queue and generates a pixel color based on the primary hit color data, and the secondary color data. The method generates an image based on the pixel color for the pixel data.

The invention discloses a processing method of an instant seasoning lotus root, which comprises the steps that a fresh lotus root is cleaned, peeled, sliced, then subjected to primary color protection and crisp keeping, rinsed, seasoned, subjected to secondary color protection and crisp keeping, seasoned, packaged and sterilized at a high temperature, and the instant seasoning lotus root is obtained. The processing method is simple and efficient; the color protection and crisp keeping are conducted simultaneously in the primary color protection and crisp keeping step; the secondary color protection and crisp keeping step is merged into the seasoning step, so that the time is saved and the effect is good. As a vacuum curing method is adopted, the curing time is saved; the appearance of an obtained lotus root sheet is creamy white; and the lotus root sheet has luster and a delicious and crisp taste. Compared with the prior art, the delicious and crisp taste is improved, and the lustrousness is better.

The invention provides a two-panel color management system for projection display applications, wherein color sequencing is accomplished using achromatic beam switching and static color separation. In a preferred embodiment, a liquid-crystal polarization switch alternates a polarization of an input light beam between two orthogonal states. A polarization beam splitter directs the beam comprising three primary color components alternately along a first and second paths, wherein first and second different secondary color filters are disposed for forming first and second secondary colored beams, each having two different primary color components. A dichroic color separator alternately receives the first and second secondary colored beams, separates their primary color components and directs them to first and second imager panels. A beam combiner combines the first polarized primary color beam from the first imager and the second polarized primary color beam from the second imager to form a projection beam.

Innovations in control and use of chroma quantization parameter ("QP") values that depend on luma QP values. More generally, the innovations relate to control and use of QP values for a secondary color component that depend on QP values for a primary color component. For example, during encoding, an encoder determines a QP index from a primary component QP and secondary component QP offset. The encoder maps the QP index to a secondary component QP, which has an extended range. The encoder outputs at least part of a bitstream including the encoded content. A corresponding decoder receives at least part of a bitstream including encoded content. During decoding, the decoder determines a QP index from a primary component QP and secondary component QP offset, then maps the QP index to a secondary component QP, which has an extended range.

An incremental printer, such as for example an inker printer, produces very small markings (as for example by firing small ink droplets) preferably in a single-pass print mode for text, as well as image applications if desired, to achieve addressable print resolution at least four times higher in the carriage scan axis than in the media advance axis. More preferably the resolution in the scan axis is at least six times, ideally eight times, higher than that in the media advance axis. A preferred form of the invention uses 96 dots / mm (2400 dpi) resolution in the scan axis, in conjunction with only 12 dots / mm (300 dpi) resolution in the media advance axis, without having to employ any dot-depletion algorithms. In one embodiment, the system provides a single-pass color print mode wherein primary colors are printed with eight color droplets of the same primary color in eight adjacent sub-pixels on the 300x2400 grid, and secondary colors are printed with eight color droplets of different primary colors in eight adjacent subpixels on the same grid. One implementation uses a pen with a single tab-head assembly, with nozzles in plural parallel staggered columns, receiving ink from plural different ink reservoirs. Two such pens provide four inks for color inker printing. Three or more such pens enable a printing system to supply ink of plural dilutions for at least one of the ink colors in the system, and thereby facilitate photographic-quality printing.

The invention discloses a color protection preservation method of a poached green leaf vegetable instant product, belonging to the field of fruit / vegetable food processing. The method mainly comprises the following steps of: performing pretreatment, blanching for enzyme deactivation and vacuum infiltration soaking with a color protection and crisp protection agent (sodium alginate, calcium chloride, potato starch and zinc gluconate) of the green leaf vegetable; and performing secondary color protection preservation soaking by use of the color protection preservation liquid consisting of table salt, edible glycerin, sodium carboxymethylcellulose and sucrose ester. The method reduces the color protection preservation cost, and improves the color of the poached green leaf vegetable product stored in normal-temperature condition. The nano ZnO antibacterial liquid (in which a sodium hexametaphosphate dispersion protector with concentration of 0.015% is added) is subjected to vacuum packing and low-frequency (915MHz) microwave uniform sterilization. The storage temperature is normal temperature. Through the invention, good color and fresh degree of the poached green leaf vegetable instant product are kept in the normal-temperature storage period.

A projection system incorporating a prism with dual total internal reflection function, to increase the performance of DLP™ projection, by offering a solution to combine 2 light paths to contribute to the brightness on the screen and at the same time rejecting flat-state and off-state light from entering the projection lens thereby enhancing contrast. In one implementation those two light paths can be collecting light from 2 different light sources which are driven in a pulsed manner with a duty cycle of approximately 50% for each of the two light sources at increased power. In a second implementation with a colour sequential single DMD™ projector, while one light path passes a primary colour the second light path passes the complementary secondary colour. A special colour transformation algorithm is proposed to transform the image input signals to make optimal use of the capabilities offered by the second implementation, and create maximum brightness and colour saturation of the image.

A printing apparatus, which forms a color image by applying different color inks to a printing material while bi-directionally moving the recording head to scan the recording material, includes a changing unit for changing an order of applications of the inks of different colors to be applied at least at one amount for printing a secondary color to a secondary color pixel area; and a forming unit for forming the secondary color while making the order of applications of the inks to at least one of a plurality of the secondary color pixel areas arranged along a predetermined direction different from the order of another, by the changing unit.

A two-panel projection display system includes a color wheel having color filter segments that transmit light having a secondary color, namely cyan, magenta, and yellow, made up of two primary colors. A primary color separator, such as a second color wheel, a transflective dichroic beamsplitter, or a color-sensitive polarizing switch separates the secondary color beam into a first polarized primary color beam and a second polarized primary color beam, which are directed to first and second imager panels. A beam combiner combines the first polarized primary color beam from the first imager and the second polarized primary color beam from the second imager to form a projection beam. Accordingly, any two primary colors can be imaged at the same time enabling the system to be white point balanced.

A method for performing chromatic adaptation includes performing chromatic adaptation wherein corrections to tristimulous values XYZ are maximized in the regions of white and neutral and are minimized in the vicinity of non-neutral regions of colors space via piecewise linear corrections in XYZ. In one embodiment, a selective linear correction is performed using three matrices one for each sector in an RGB color space. In an alternative embodiment, selective color adjustments are made and the adjustments are partitioned for each primary and secondary color.

A compact, lens suitable for airborne photography and mapping has distortion less than 0.6% and is athermal from −15° C. to +40° C. The lens is near-telecentric to less than 11°, apochromatic over the wavelength range 450 nm-650 nm, and has a full field of view of 60° (high quality field over 53°). The lens can be secondary color corrected. In embodiments, the focal length is 101 mm and the back working distance is more than 10 mm. Embodiments have a focal plane diameter of 104 mm and are compatible for use with a CMOS 1.8 gigapixel multiple FPA. In embodiments, the lens comprises three groups of optical elements, with an aperture located within the second optical group. In some embodiments the first group includes two elements, the second group includes six or seven elements, and the third group include three elements. In embodiments the lens (without window) is less than 180 mm long.

The invention discloses a splicing wall color uniformity and consistency control method based on a video camera.A measurement system is provided, and comprises a plurality of projectors, a CCD camera,a computer, and a projection screen. The image device of the video camera comprises a 2 / 3-inch 2.2-megapixel 3CCD, and each frame of image has an effective pixel of 1920(horizontal)*1080(vertical). According to the working process of the measurement system, under the control of the computer, the CCD camera is used to acquire three-color brightness information on the projection screen in a time-sharing way, and according to the acquired three-color brightness information, color coordinates of secondary colors on the screen are calculated; whether the colors of the secondary colors on the screen are arranged in a uniform way is analyzed according to the distribution of the acquired color coordinates; a color automatic adjusting device is used for the point-by-point compensation of single projection display units to realize the color uniformity in the units, and is used to optimize the brightness and the color parameters of the various units automatically, and therefore the long-term consistency and the long-term stability of the colors and the brightness of the frames among various display units of a display system are realized.

The invention provides a color correction method for digital sample printing equipment. The method comprises the following steps: generating and configuring a linear curve, total ink and a grey balance calibration file of the digital sample printing equipment in sequence; generating an equipment connection ICC profile according to a generated ICC profile of the digital sample printing equipment and a generated ICC color profile of printing equipment in order to finish primary color correction; and when a trigger condition is satisfied, regenerating a linear curve and a grey balance calibration file in a current sample printing environment by using relevant parameters recorded during primary color correction, and configuring the regenerated linear curve and grey balance calibration file on the sample printing equipment. During secondary color correction of the sample printing equipment, a total ink value and a color separation file do not need to be reconfigured, and color matching between the digital sample printing equipment and the printing equipment does not need to be performed once again, so that color correction flow is simplified, and the color correction time is saved.

A control interface for producing a composite color through the mixing of primary colors selected from a first color spectrum including red, yellow, and blue, resulting in the display of said composite color through a light array containing lights of a second primary color spectrum is disclosed. The user selects a color or colors from the first primary color spectrum, and a circuit and control algorithm controls the relative intensities of the colors comprising the second primary color spectrum, rendering the selected color or a mix of previously selected colors through the light array. Through the selection and graduated combination of the primary colors of the first spectrum, the creation of a wide range of colors in the visual spectrum is obtained for lighted color applications. When the first spectrum comprises the primary colors of red, yellow, and blue, the user is able to use the familiar three-primary, three-secondary color wheel, used in art education and taught in elementary school, for their color combination reference. The color selections from the first spectrum are coded to produce corresponding electrical signals to control the output of the light array to establish the proper mix of colors that displays the selected color.

The invention discloses an identification method for mixed colors of targets and relates to the field of computer vision and intelligent video monitoring. The method comprises inputting a target image, converting color space, calculating the color membership degree, determining the target colors, and outputting the target colors. According to the identification method, the color membership degree of each pixel is calculated in hue, saturation and value (HSV) color space to obtain accurate description of the color of each pixel, and the target colors are identified accurately through reasonably integrating the pixels; color identification defects in the HSV space are overcome to some extent; primary and secondary colors of targets can be output, and the mixed colors of the targets are identified; and the identification method is small in calculation amount, wide in applicability, stable in experiment effect and applicable to target color identification of various public places.

An image processing apparatus for forming an image using at least three color materials includes a first generation device for generating a plurality of patches of secondary colors composed of color materials of two different colors; a first measurement device for measuring the patches; a first correction characteristic calculation device for calculating gradation-correction characteristics corresponding to each of the two color materials; a second generation device for generating a group of patches in accordance with an image signal for the two different color materials and an image signal for color materials other than the two color materials by using an image signal corrected on the basis of the gradation-correction characteristics; a second measurement device for measuring patches generated by the second generation device; and a second correction characteristic calculation device for calculating gradation-correction characteristics of image signals for color materials other than the two different color materials.

The invention discloses a method for detecting a printing color by using complex frequency spectrum color feature numerical values, comprising the following steps of: measuring the color of a printing matter through a visible spectrophotometer to obtain a spectrum function, and then calculating according to a complex frequency spectrum chromatic diagram and a color feature numerical value calculating method to obtain the complex frequency spectrum color feature numerical values such as a complex frequency spectrum color phase value H, a complex frequency spectrum brightness value L and the like; detecting a product color feature numerical value in real time in the printing and producing processes, and carrying out holographic detection and adjustment on the color and the contrast of the printing matter by utilizing the relation between brightness and the thickness of an ink layer, the relation between a color phase of a secondary color and color strength, the relation between gray level and the balance of three colors, i.e. yellow, pinkish red and green and the linear relation between comprehensive brightness and a dot area rate. Compared with the traditional detecting method, the method for detecting the printing color by using the complex frequency spectrum color feature numerical values has obvious advantages on the aspects such as data intuition, operability of method, effectiveness in use, economical efficiency of instruments, universality in popularization and the like, and particularly solves the problem that the two traditional indexes, i.e. three-color gray level balance and contrast linearization, are still judged mainly depending on vision and adjusted depending on experience.

A method for modeling color halftones that reduces both the number of parameters and the number of measurements needed to characterize an inkjet color printer. The method is based on the eigenanalysis of sample reflectance data and a probabilistic analysis that considers light scattering on the paper substrate as a breakage process governed by a log-normal distribution. The method estimates the reflectance of a print color by characterizing colors as a multiplicative composition of primary color reflectances rather than as an additive mixture of primary and secondary color reflectances as suggested by the theory of Neugebaeur.

The invention discloses a fire image detection method based on a mixed color model and a neural network. The method comprises the following steps: firstly, performing an inter-frame difference methodon a monitoring video image to obtain a moving foreground region; extracting an area conforming to flame color characteristics through the mixed color model, and performing secondary color area expansion to obtain candidate areas filtered by the color model; taking a union set of the motion foreground area and the color candidate area to obtain a suspected flame area; and finally, constructing a dense connection convolutional neural network, and comprehensively judging whether a suspected flame region has a fire behavior or not through the trained network model and the secondary mixed color model. According to the method, the flame candidate area with high precision is obtained through motion detection and the mixed color model, the detection speed is high, the deep neural network guarantees the flame detection accuracy and the generalization capability, the method can be widely deployed in an actual intelligent security system, fire hazards are early warned, and losses caused by the fire hazards are reduced.

The invention relates to a novel receiving device of a color selector, which is arranged below a feeding device. A nozzle is arranged on the rear upper side of the receiving device, the receiving device comprises at least one spoiled material cavity, at least one middle material cavity and at least one honest material cavity, one middle material cavity and at least one honest material cavity forma group and are arranged side by side in a direction perpendicular to a material blowing direction, the honest material cavities are arranged below the feeding device, one middle material cavity is arranged on one side of the corresponding honest material cavity along the material blowing direction, and one spoiled material cavity encloses at least one middle material cavity and the honest material cavity in the same group. The receiving device of the color selector is provided with a plurality of distributing cavities and a sample tap, materials in the cavities are conveniently sampled without halting, and the requirement of a mechanical production line is met. An adjusting plate is arranged in each middle material cavity, the burden of secondary color selection is relieved, production efficiency is high, and practical effects are fine.

The invention discloses a method for recycling, regenerating and reusing waste paint residues. Water-containing waste paint residues and dry waste paint residues are included. The method comprises a method A for recycling, regenerating and reusing the water-containing waste paint residues and a method B for recycling, regenerating and reusing the dry waste paint residues. The method A comprises the following steps: volatilizing water, smashing the residues into dry powder of 500-1,000 meshes, dissolving into aqueous paint, grinding the aqueous paint, filtering the aqueous paint by a filtering net with the fineness of 450-650 meshes, modulating the color, adding a colorant into the filtered aqueous paint during stirring, stewing for 72 hours, and removing oil dirt to obtain a finished product. The method B comprises the following steps: performing dissolving, grinding, filtering and viscosity adjustment, performing secondary color modulation, adding filtered paint into a reaction kettle, and adding a solvent colorant during stirring to obtain a finished product. The water-containing waste paint residues and the dry waste paint residues are respectively treated; by use of the different physical properties and the dissolving capacities, the water-containing waste paint residues and the dry waste paint residues can be both turned into treasures and can be reasonably collected; the phenomenon that the waste paint residues pollute the air, the soil and the working environment can be completely treated, and the method is a powerful guarantee for environmental treatment.