23 results about "Color formation" patented technology

An information processing apparatus including a processor configured to: acquire a color forming member image obtained by imaging a color forming member, which forms a color with density distribution corresponding to an amount of energy applied thereto; derive first energy distribution applied to the color forming member based on the color forming member image by using characteristic data in which a relationship between the amount of energy applied to the color forming member and density of the color forming member is determined in advance; acquire second energy distribution obtained from a sensor device in a case where the same energy as the energy applied to the color forming member is applied to the sensor device, the sensor device outputting an electric signal in accordance with an amount of energy applied thereto; and correct the second energy distribution based on the first energy distribution.

A method of coating a contact to have various colors. The color may be selected to match a color of a portion of a device housing of an electronic device housing the contact. Examples alternatively provide a method of coating a contact to have a color that contrasts the color of a portion of the device housing. These methods can provide electrical contacts with low contact resistance and good corrosion and scratch resistance.

Provided are a panel member having good aesthetic properties and good visual recognition of characters, figures, symbols, and the like, and an electronic musical instrument having the panel member. An operation panel has a base layer (341) including a transmission portion (341a) that transmits visible light and is shaped like an identification (I), and a base portion (341b) that surrounds the transmission portion (341a) and has a lower transmittance of visible light than the transmission portion (341a); a first color-developing layer (342) that is positioned at a higher layer than the base layer (341), is formed of a certain color, and transmits at least a portion of visible light; a diffuse reflection layer (343) that is positioned at a higher layer than the first color-developing layer (342) and diffusely reflects at least a portion of visible light; and a second color-developing layer (344) that is positioned at a higher layer than the diffuse reflection layer (343) or inside the diffuse reflection layer (343) and is formed inside the shape of the identification (I) of the transmission portion (341a) when viewed from above.

The present invention relates to a color-developing material based on the structural color formation principle of pheasant feathers and a preparation method thereof. The color-developing material comprises a plurality of strip-shaped color-developing elements arranged in an array; each color-developing element comprises a color information layer and a transparent layer, with the transparent layer positioned above the color information layer; the color information layer comprises a rectangular transparent encapsulation body and a pigment rod completely encapsulated within the encapsulation body; the pigment rod comprises at least two pigment sub-rods of different colors, extending along the length of the color-developing element, with at least two pigment sub-rods arranged closely together in sequence across the width of the color-developing element to form the pigment rod; the upper surface of the transparent layer is an arched surface, and the lower surface of the transparent layer is a flat surface, with two arched feet of the arched surface connected to two edges of the flat surface, respectively; the lower surface of the transparent layer is connected to the upper surface of the transparent encapsulation body, and the transparent layer covers the pigment rod. This material can simulate the characteristic of pheasant feathers, where the color changes with changing viewing angle.

A method is disclosed for determining concentration of an analyte in a body fluid with a mobile device having a camera. The camera captures an image of an optical test strip having a test field. The analyte concentration value is determined from color formation of the test field. Provided in the mobile device is a correlation for transforming color formation of the test field into analyte concentration. Also provided in the mobile device is an item of clearance information indicating a level of confidence for the correlation. When the item of clearance information indicates a sufficient level of confidence for the correlation, the mobile device indicates to a user that the capturing of the image does not require using a color reference card. Further disclosed are a method of controlling analytical measurements, a mobile device, a system for controlling analytical measurements and computer programs for performing and / or controlling analytical measurements.

The utility model relates to the technical field of fishing tackles, in particular to a color-changing float tail with a good striking effect, which comprises a float and a float tail fixedly connected to the top end of the float, an anti-inclination component is arranged on the outer side of the float tail, the anti-inclination component comprises a plurality of groups of photosensitive color-changing paints coated on the outer side of the float tail, and a plurality of groups of fluorescent paints coated on the outer side of the float tail. Two sliding grooves are formed in the outer side of the float tail. The color of the photosensitive chameleon paint is changed according to weather conditions, color difference is formed between the photosensitive chameleon paint and the color generated by the fluorescent paint, meanwhile, the movable disc can prevent the float tail from inclining, the photosensitive chameleon paint coated on the outer side of the float tail can change various colors according to the weather conditions, and color difference is formed between the photosensitive chameleon paint and the color generated by the fluorescent paint. When the buoy is blown by wind or under other conditions, the movable disc can effectively prevent the buoy from inclining and affecting watching of a fisherman, and then the striking effect of the buoy is guaranteed.

Provided is an information processing apparatus including at least one processor, in which the processor is configured to acquire a plurality of color forming member images obtained by imaging a color forming member, which forms a color with density distribution corresponding to an amount of energy applied thereto and derive the amount of energy applied to the color forming member based on each of the plurality of color forming member images by using characteristic data in which a relationship between the amount of energy applied to the color forming member and a color of the color forming member included in the color forming member images is determined in advance.

Methods of coating contacts to have various colors. The color can be selected to match a color of a portion of a device enclosure for an electronic device housing the contacts. Examples can instead provide methods of coating contacts to have a color to contrast with a color of a portion of the device enclosure. These methods can provide electrical contacts having a low contact resistance and good corrosion and scratch resistance.

The invention relates to a multi-color channel control system and method based on a photochromic material. The method comprises the following steps: performing time sequence multispectral analysis on a photochromic material region according to time sequence steady-state color gamut data and agent heat safety constraints to obtain baseline observation data; according to the baseline observation data, performing dynamic modeling on the photochemical reaction relationship of the photochromic material area to obtain spectral state assimilation model data; according to the spectral state assimilation model data, performing optimal control solution on the illumination parameters of the photochromic material area to obtain closed-loop time sequence illumination data; and according to the spectral state assimilation model data and the closed-loop time sequence illumination data, performing consistency analysis on the channel stability of the photochromic material area to obtain multi-color channel control data. By adopting the method, the color forming precision, the response speed and the long-term stability can be effectively improved to meet the production requirements.

An image forming apparatus includes circuitry to generate image forming data in which a pattern that includes a first image formed with a first color and a second image formed with a second color different from the first color is arranged, the first image being arranged at a position that simultaneously satisfies a first main scanning position and a first sub-scanning position, the second image being arranged at a position that simultaneously satisfies a second main scanning position and the first sub-scanning position, the second main scanning position being different from the first main scanning position, a print engine to form a color image on a medium based on the image forming data, the color image having a plurality of images superimposed one above the other, and a reading device to read the color image formed on the medium. The circuitry is further to detect positional deviation information indicating a deviation of at least one of the first image or the second image based on the color image read by the reading device.

The invention relates to a computer-implemented analysis method for determining a concentration of an analyte in a bodily fluid by using a mobile device having at least one camera, the computer-implemented analysis method comprising: i) receiving at least one image captured by the camera of the mobile device, the image comprises at least a portion of a reagent test region associated with an optical test element and / or with a color reference card, the reagent test region being applied with a sample of the bodily fluid, said image further comprising at least a portion of at least one hydrochromic indicator zone associated with said optical test element and / or associated with said color reference card, wherein said hydrochromic indicator zone exhibits at least one optically detectable color change at a predetermined threshold level of relative humidity rHthreshold (m); ii) deriving an estimate of local relative humidity, rHestimate, from the color of the hydrochromic indicator zone in the image; and selecting one of at least two predetermined relative humidity application ranges rHappl-range (n) on the basis of the estimated value rHestimate, and selecting one of the at least two predetermined relative humidity application ranges rHappl-range (n) on the basis of the estimated value rHestimate; and iii) determining the concentration of the analyte from the color of the reagent test region in the image based on a color forming reaction at the reagent test region of the sample to which the bodily fluid is applied, taking into account the relative humidity application range rHappl-range (n) selected in step ii).

In an image forming apparatus where two light beam scanning devices are arranged in the scanning direction for each color, the present invention provides an image forming apparatus that can eliminate extra sensors and reduce costs. [Solution] The system includes a correction means that corrects the positional misalignment for each optical writing means by forming correction patterns for each color on a second image carrier and detecting the correction patterns with a plurality of sensors, wherein the divided region and the boundary of the divided region are provided with a region width that is irradiated with a light beam by two adjacent optical writing means, and the region width overlaps by a certain distance only at the edges of the scanning regions of the two adjacent optical writing means, and within the region width, each optical writing means generates the correction pattern, and a common sensor detects the correction pattern of each optical writing means.

Provided is an information processing apparatus including at least one processor, in which the processor is configured to acquire at least one of a color forming member image obtained by imaging a color forming member, which forms a color with density distribution corresponding to an amount of energy applied thereto, or an accessory image related to the color forming member image and determine whether the acquired image is the color forming member image or the accessory image.

The present invention discloses a reversible adaptive watermark embedding and removal method based on color statistics. The watermark area of ​​the original image is subjected to histogram statistics according to the color system, and the corresponding complementary color image and the optimal watermark color are obtained by calculation to ensure that the watermark color forms a clear contrast with the color of most pixels in the watermark area. After obtaining the watermark marking code representing the watermark color, the marking code is implanted by using the watermark pixel shifting method to complete the watermark pixel marking and visible watermark embedding. In order to ensure that non-watermark pixels belonging to the color system represented by the watermark marking code will not be identified as watermark pixels and mistakenly removed during the watermark removal process, it is necessary to perform color replacement. Finally, magic matrix steganography is used to write the watermark information into the non-interested area of ​​the host image. When removing, the watermark marking code and other key information are first read to retrieve the watermark pixel, which is then reversely shifted to restore the original color information of the watermark pixel, thereby achieving seamless removal of the visible watermark.

A shaped part can include a decorative layer having a front side and a rear side, which is opaque except for light-transmissive recesses, and at least one light element which emits light onto the rear side of the decorative layer. The recesses comprise a first and second recess, where the first recess is filled with a first color and / or covered on the rear side of the decorative layer with a first color layer formed by the first color, and the second recess is filled with a second color and / or covered on the rear side of the decorative layer with a second color layer formed by the second color, The light element (24) can emit at least one first and one second light color, wherein the wavelength spectrum of the first light color differs from the wavelength spectrum of the second light color.

Provided is a calibration member for calibration of an image of a color forming member, which forms a color with density distribution corresponding to an amount of energy applied thereto, in a captured image obtained by imaging the color forming member by an imaging device, the calibration member including a support that includes a first region on which the color forming member is placed and a second region on which a calibration image for calibration of the image of the color forming member is disposed and a transparent member that covers the color forming member placed on the first region of the support and of which a surface that serves as an imaging target surface in a case where the color forming member is to be imaged has a low gloss.

The present invention relates to the field of cell culture and recombinant protein production in mammalian cells. It specifically relates to a method for reducing formation of blue-colored compounds in a fed batch medium by using a high cysteine concentration and a reduced tryptophane concentration in the feed medium.

The present invention provides a latent image print in which a printed image is formed by combining a first image formed with a luminous colorant and a second image formed with a colored colorant of the same hue, and in which the image visible changes depending on the viewing angle, and the image change effect is clear. [Solution] The invention comprises a first image formed from a luminous colorant and a second image formed from a colored colorant of the same hue as the luminous colorant, wherein the first image is divided into an information section representing first significant information and a background section surrounding it, and the second image is formed by regularly arranged latent image elements representing second significant information, the background section and latent image elements are formed with visually equivalent colors, and the first image and the second image are fitted together.

A method of evaluating the suitability of a mobile device for performing an analytical measurement based on a color formation reaction. The capability of the mobile device to have relevant settings of the mobile device controlled by software running on the mobile device is evaluated. The relevant settings pertain to image raw data processing steps to be carried out by the mobile device and may include a color space transformation and a tone mapping transformation. When the evaluation indicates that the mobile device is capable of having the relevant settings controlled by the software, control information indicating that the mobile device is suitable for performing the analytical measurement is provided. When the evaluation indicates that the mobile device is not capable of having the relevant settings controlled by the software, control information indicating that the mobile device is unsuitable for performing the analytical measurement is provided.

A method of determining the concentration of an analyte in a sample of a body fluid with a mobile device having a camera is disclosed. The camera captures an image of a color reference card and of a reagent test field of an optical test strip having a sample applied to it. A predetermined pixel-based mean tone map correction is applied to the image obtained, which results in a first intensity-corrected image. Local brightness information is derived from the first intensity-corrected image. A mobile device-specific tone map correction is applied to the first intensity-corrected image, taking into account the local brightness information. A second intensity-corrected image is thereby obtained. Analyte concentration is determined based on a color formation reaction of the test field by using the second intensity-corrected image. Optionally, a color correction may be derived and applied to the second intensity-corrected image to obtain an intensity-corrected and color-corrected image.

To provide a method for coating contacts to have different colors.SOLUTION: The color can be selected to match the color of a portion of a device housing of an electronic device that houses the contact. Alternatively, embodiments can provide methods for coating the contact 200 to have a color that contrasts with the color of the portion of the device housing. These methods can provide electrical contacts with low contact resistance and good corrosion and scratch resistance.SELECTED DRAWING: Figure 5

The application provides a coating weather resistance verification method, a coating system and an automobile body part, and the method comprises the following steps: determining a corresponding coating system according to a selected coated substrate; using the coating system to adjust target automobile body colors according to the weather resistance requirements of different parts, and forming differentiated coating formulas; performing comprehensive performance tests on at least one target automobile body color, and obtaining the target color paste type used by the target automobile body color when the test is passed; obtaining the ratio of pigments to binders of the color paint layer in the test passed coating formula, and taking the maximum value in the ratio as the limit color base ratio; combining the coating of the coating system with the target color paste type, and adjusting according to the limit color base ratio, and performing weather resistance verification on the adjusted test coating. In this way, the weather resistance of the coating can be tested while ensuring that the stone impact resistance, scratch resistance, chemical resistance and other performances of the coating are not affected, the development cycle of the coating is greatly shortened, and the development efficiency is improved.