A printing apparatus is provided. The printing apparatus includes a processing circuitry configured to generate embedding data to be embedded in a print image to be printed out; divide the print image into two or more areas, and embed the embedding data in each of the two or more areas in such a way that placement of the embedding data is identical in each of the areas; and output the print image in which the embedding data is embedded.

A read sensor generates front side image information indicating an image on a front side of an object to be read, and front side measurement information indicating a line of an image in a main scanning direction on the front side of a correction chart. A read sensor generates back side image information indicating an image on a back side of the object to be read, and back side measurement information indicating a line of an image in the main scanning direction on the back side of the correction chart. The image correction device calculates an amount of misalignment of read positions based on the front side measurement information and the back side measurement information, and corrects misalignment of images on the front side and the back side of the object to be read, indicated by the front side image information and the back side image information.

An interactive kiosk for reading a document, the kiosk comprising: a transparent platform for supporting a document; a first camera disposed below the transparent platform; a mirror assembly comprising at least one mirror disposed below the transparent platform, the mirror assembly being arranged to reflect light from the underside of the transparent platform to the lens of the first camera; and a control unit connected to the first camera, the control unit being configured to receive content from the first camera and extract data from a document disposed on the transparent platform.

By overlapping lighting timings of light sources that emit lights of a plurality of different wavelength bands including a wavelength band of at least a visible light region and an infrared light region, the lights of the plurality of the different wavelength bands including the wavelength band of at least the visible light region and the infrared light region are emitted on a banknote while securing an overlap in timings thereof. Moreover, by using light receiving elements each including a bandpass filter that allows only light of a wavelength range that corresponds to the wavelength band of each of the light sources, received light intensities of the light of the wavelength range that corresponds to the wavelength band of each of the light sources are acquired simultaneously, and image data are formed based on the received light intensity of every acquired wavelength band.

An image scanning apparatus comprises: a first image scanning unit that performs image scanning of a first surface of an original; a second image scanning unit that performs image scanning of a second surface of the original; and a control unit that controls output channels for outputting analog signals from the first image scanning unit, wherein the control unit changes, between a case of single-sided scanning and a case of both-sided scanning, the output channels of the analog signals output from a part of scanning region in a plurality of scanning regions of the first image scanning unit, and changes, between a case of single-sided scanning and a case of both-sided scanning, the number of output channels for outputting the analog signals from the first image scanning unit.

Examples of systems having scanners are described. In an example, a system includes a 3-channel scanner and a 1-channel scanner.

The present invention relates to an imaging device (1) for a medical imaging system (100), comprising: at least one first photosensitive imaging member (10), at least one second photosensitive imaging member (20), and an optical element (30),

wherein the optical element (30) is configured to route an incoming image to the first photosensitive imaging member (10) and/or the second photosensitive imaging member (20).

A method and system for rendering a gloss effect image on a recording medium, can involve creating with a processor, a mirror of a gloss effect image of a gloss mark located on a front side of a recording medium, and rendering with a color printer having marking materials, the mirror of the gloss effect image on a back side of the recording medium directly opposite the gloss mark located on the front side of the recording medium. The processor can include a digital front processor that communicates with the color printer. The gloss effect image of the gloss mark can be, for example, a micro gloss feature or a macro gloss feature.

An image processing apparatus including: a document table on which at least one document is arrangeable; an image input unit reading the document arranged on the document table; an individual image extractor extracting image data read by the image input unit on a document basis to obtain image data of an individual image; a storage storing association information between an arrangement status of the document with respect to the document table and a reading surface of the document to be read by the image input unit; an arrangement status determiner determining the arrangement status of the document with respect to the document table on the basis of the image data of the individual image; and a reading surface determiner determining the reading surface of the document read by the image input unit on the basis of the association information and the arrangement status determined by the arrangement status determiner.

By overlapping lighting timings of light sources that emit lights of a plurality of different wavelength bands including a wavelength band of at least a visible light region and an infrared light region, the lights of the plurality of the different wavelength bands including the wavelength band of at least the visible light region and the infrared light region are emitted on a banknote while securing an overlap in timings thereof. Moreover, by using light receiving elements each including a bandpass filter that allows only light of a wavelength range that corresponds to the wavelength band of each of the light sources, received light intensities of the light of the wavelength range that corresponds to the wavelength band of each of the light sources are acquired simultaneously, and image data are formed based on the received light intensity of every acquired wavelength band.