Abstract:
A laminated coating film (2) includes a metallic base layer (4) and a color clear layer 5, and produces a target color with the metallic base layer 4 and the color clear layer (5). The laminated coating film (2) is designed to have high chroma at the highlight, and further to provide an appearance of denseness. To address this, the laminated coating film satisfies the following formula (1): (RH(P)/RH(OA))>60 (1) where RH(P) represents a highlight reflectance of light of the target color, and RH(OA) represents an average highlight reflectance of light in a wavelength range outside a hue range of the target color.
Abstract:
In order to present in a system with a distal server displaying a virtual color image in the form of an image file comprising individual color values on its website, and with a proximal computer connected to the server and comprising a display unit (D), said computer displaying on its display unit (D) the virtual color image of the server by means of an application program, products on the display unit (D) in the most optimum colors possible, the following is proposed: [a] a reference card (K) is held in front of the computer, said reference card (K) comprising several differently colored translucent reference areas (T1, T2, T3) besides a transparent or translucent area or an opening (G), [b.1] the application program then starts a routine on the server and/or on the computer, said routine firstly outputting a first shade, for example cyan, with a first of the color values, said first shade being complementary to the color, for example red, of one (T1) of the translucent reference areas (T1, T2, T3) of the reference card (K), [b.2] the reference card (K) having that translucent reference area (T1) whose color is complementary to the first shade displayed on the display unit (D) is then held in front of said first shade, and an identifier is determined and stored for that (T1) of the translucent reference areas (T1, T2, T3) for which the shade of grey resulting from color mixture of the first shade and the translucent reference area (T1) comes closest to a shade of grey displayed on the display unit (D) and falling through the area or the opening (G), [c] the step [b.1] and the step [b.2] are repeated at least once to output a second shade, for example magenta, of a second of the color values, said second shade being complementary to the color, for example green, of another (T2) of the translucent reference areas (T1, T2, T3) of the reference card (K), and to determine and store the identifier of said other (T2) of the translucent reference areas (T1, T2, T3), [d] the identifiers of the reference areas (T1, T2, T3) determined in the preceding steps [b.1], [b.2], [c] and stored on the server and/or on the computer are input in this order into a color correction program started on the server and/or on the computer, and [e] for each image file sent by the server the color correction program is used to adjust the virtual color image for each color value included in the image file by applying the identifiers used as correction values whereby said virtual color image is displayed in colors optimized in respect of its recording conditions.
Abstract:
An apparatus for identifying differences in the visual and recorded appearance of colors and gray tones illuminated by light sources having different spectral distribution and having: a first image with illumination, with separate and different color elements and with gray scale elements, apertures in the first image adjacent to the elements, a second image with illumination having a plurality of separate elements of color and gray scale, corresponding to the elements of the first image so that the elements on the second image are viewable through the apertures in the first image, with corresponding color and gray scale elements adjacent to one another in the first and second images, and a method of comparing light quality using such apparatus.
Abstract:
Embodiments described herein disclose a color measurement device and method for use with cameras or other imaging devices. The color measurement device may be configured to determine many different colors via a commonly owned device. Embodiments utilize sinusoidal grayscale rings to determine an exact color match of an unknown color, even if there is perspective distortion of an obtained image.
Abstract:
The present invention concerns a system and method for calibration and adjustment of the pixel color values represented within a digital image of a sample by a transmission microscope. Furthermore the present invention is directed to providing sufficient color information in order to generate a color mapping matrix that allows for the creation of a synthetic image to depict the sample under a desired illumination. The system and method provides a solution that generates a destination-device independent image that is configurable to any calibrated display device.
Abstract:
The instant invention relates to methods and means for calibrating and matching colors and light. Some embodiments of the methods and means of the invention also incorporate additional functionality including, but not limited to communication, sensing, display and data processing elements. Various embodiments of the methods and means of the invention may be performed by and/or implemented in hardware, in software, by one or more entities, and/or by some combination of hardware, software and/or one or more entities.
Abstract:
The method is for identifying and selecting a color or a combination of colors. A color sphere (200) is provided that has a first color pocket (238) defined between a first horizontal disc (202) and a second horizontal disc (208) and vertical inserts (212c, 212b) extending between the first horizontal disc and the second horizontal disc. The first horizontal disc has a plurality of organized first spectrum of color cells and the second horizontal disc has a plurality of organized second spectrum of color cells. The first spectrum is gradually lighter than the second spectrum and gradually more gray from a peripheral surface (209) towards an axial opening (232a) of the first horizontal disc and an axial opening (232b) of the second horizontal discs. A first color cell (236) is identified in a first pocket (238).