Abstract:
A computer program product executed by a computer connected with a document imager that uses an imaging section to image an original document mounted on a document bed plate on which the original document is mounted and which has a specific pattern formed on a surface thereof and outputs an image of the original document allows a CPU to execute a judging step of judging stillness of the original document mounted on the document bed plate from at least one of a discontinuity of the pattern at an outer peripheral portion in a document bed plate image obtained by the imaging section and a change in the document bed plate image.
Abstract:
An imaging camera head for a visual presenter including a base, a support column standing on the base and having a distal end and an imaging camera having an operation section is disclosed. The imaging camera head is mounted on the distal end of the support column and includes a casing lengthwise divided into a plurality of parts and having one end on which the imaging camera is mounted and the other end on which the operation section of the imaging camera is mounted and a coupling shaft extending lengthwise with respect to the casing and coupling the parts to each other for relative rotation.
Abstract:
An imaging system includes a line-scan camera (8) having an image line in an planar imaging beam path and a depth of focus. Line forming optics are arranged between at least two arrays of LEDs (4,6) and the image object so as to form two respective illumination stripes in two planar illumination beam paths (5,7). The planar imaging beam path (9) is located between the two or more planar illumination beam paths (5,7). The planar imaging beam path (9) and the two planar illumination beam paths (5,7) preferably intersect proximate to the far depth of focus of the camera. The image line and illumination stripes are parallel across an image area, which may comprise a transport device, such as a conveyor. The non-coplanar planar illumination beam paths provide maximum overlap at the farthest depth of field where illumination is most needed and diverge closer to the camera.
Abstract:
An image forming apparatus with three-dimensional object imaging capability is provided that is compact, has a small footprint, and is easy to use. This apparatus has a top-surface paper ejection unit (130) that ejects paper P on which an image has been formed by an image forming unit (110) onto the top surface of the apparatus body (101); a top-surface paper ejection tray (150) that can be opened and closed with respect to the apparatus body (101) and receives paper P ejected by the top-surface paper ejection unit (130); an object placement platform (160) whose object placement surface (161), on which an object is placed, is exposed by opening the top-surface paper ejection tray (150); and a two-dimensional sensor (170) for imaging an object placed on the object placement platform (160). The apparatus has a configuration in which the top-surface paper ejection tray (150), when open, serves as a support for the imaging section. In this image forming apparatus (100), the top-surface paper ejection tray (150) also functions as a support for the two-dimensional sensor (170).
Abstract:
An image shooting apparatus capable of accurately connecting split images while avoiding increase in the size of the apparatus is described. The stop positions of an image forming portion 10 is detected on the order equal to the pixel pitch, the shift amounts of the shot split images are obtained from the shift amounts of the stop positions of the image forming portion 10, and for each split image, the address is converted to a normal address based on the shift amount.
Abstract:
The purpose of obtaining a high resolution image with fewer number of image sensings in an image input device which allocates a planar object such as a document or the like into a plurality of areas for image sensing, and combines the obtained image data for output to a printer or display device or the like.An image reading device using an area sensor as an image sensing element 30 which is stationary in an image sensing unit 14 facing the center of a document 1 on a table 11, and a taking lens 31 moves parallel to the document 1 and the image sensing element 30 to read the images of allocated sections A˜I of the document 1.
Abstract:
A scanning apparatus adaptable for two resolutions has two carriages with different resolutions. The carriages are disposed in the cover and the scanning bed of the scanning apparatus respectively. Each carriage includes a lens and a sensing module and the sensing module and the lens are at a fixed distance. The optical lengths between the lenses and the documents to be scanned are different so that the resolution produced by the carriage in the cover is different from the resolution produced by the carriage in the scanning bed.
Abstract:
A device and a method for reading out information stored in a storage layer. In this connection it is possible to support the storage layer on a support surface. An emission radiation transmitted from the storage layer is received by means of a receiving device. A distance between the receiving device and the support surface can be variably adjusted.
Abstract:
Upon certain operations by a user, the presentation device displays a zoom window ZW in an image. The user moves the zoom window ZW by moving a mouse 19, so as to indicate a desired area in the image. When the desired area is indicated by the user, the presentation device magnifies and displays the area in the zoom window ZW. The area H in the zoom window is displayed with relatively higher brightness than other areas. As a result, the presentation device of the invention allows the location of the magnified area to be readily indicated while previewed.
Abstract:
A document image capture (scanning) system and control method are described for scanning and processing document images received live from a camera. A motion detector detects image motion between two image frames. When the image is stationary, image processing (such as OCR) is carried out automatically and made available to the operator. In one form, when movement is detected, the image processing results are discarded until the image is newly stationary, whereupon new image processing is carried out on the new image. In another form, the degree of movement is evaluated; if the movement is small, then at least some of the previous image processing results are re-used by re-mapping on to the new image.