Abstract:
A scanning or copying system can include imaging elements and one or more system processors that are programmed or adapted to perform image processing methods and algorithms on image data, and in some instances, to enhance the image. Image data is acquired using imaging elements. Some imaging elements may have overlapping or rotated fields of view or employ differing resolutions. For each imaging element, its output is recombined together with the output of one or more other imaging elements. To perform the recombination, the system can extract features in an overlapping region and match these features in multiple images. In some instances, the features matched can be edges. Alternatively, the recombination can be performed by positioning each subimage with respect to a larger image through image matching and location techniques. Parameters from the recombined image can be extracted and these parameters can be used to correct for geometrical and spatial distortions and thereby enhance the image.
Abstract:
A document processing system includes a first acquisition section, a storage section, a second acquisition section and a data processor. The first acquisition section acquires a position specified by a user in an actual document. The storage section stores layout data of the document and content data of the document associated with the layout data. The second acquisition section acquires data in the specified position from the content data of the document stored in the storage section, based on the layout data stored in the storage section and the specified position. The data processor processes the data acquired by the second acquisition section.
Abstract:
A visual presenter includes a camera support arm including a pivot support arm pivotally supported on a base and having an interior cavity and a slide support arm which is inserted into the interior cavity of the pivot support arm so as to be slidable and having a distal end on which the image pickup camera is mounted. When the pivot support arm is caused to pivot from a storage location where the camera support arm lies to a setup location where the camera support arm stands up, the slide support arm is pushed out of the pivot support arm by the sliding mechanism so that the image pickup camera is set up at a predetermined location. When the pivot support arm is caused to pivot from the setup location to the storage location, the slide support arm is brought into the pivot support arm by the sliding mechanism.
Abstract:
A visual presenter includes a base including a pivotal shaft support, a support column standing on the pivotal shaft support and having a distal end curved so as to protrude in such a direction that the distal end becomes more distant from the base, and an imaging camera rotatably mounted on the distal end of the support column. The imaging camera includes a casing having both lengthwise ends, an imaging camera body mounted on one lengthwise end of the casing and an operation unit mounted on the other lengthwise end. The pivotal shaft support is biased from a lengthwise center of the casing relative to the support column so that a distance from the support column to the one lengthwise end of the casing on which the imaging camera is mounted is longer than a distance from the support column to the other lengthwise end of the casing.
Abstract:
A document positioning apparatus has a supporter. The supporter is disposed under a base of a document camera. A gap is formed between the supporter and a ground surface used to support the supporter and the gap is designed to be large enough for a document to shift. The document positioning apparatus further has a document guider, formed on an edge of the supporter to guide the document into the gap under the supporter easily.
Abstract:
An articulated arm for the alignment or a capturing device for optically capturing an object to be placed on a support surface, has—as a conventional double parallelogram arm—a base part, a top part, an articulate part and two pairs of rods which connect the base part or the top part to the articulated part. The articulated arm furthermore has a shaft which is rotatably fastened to the top part and has an operative mechanical connection to one of the rods pivotably fastened to the top part. This operative connection results in a rotation of the shaft relative to the top part on pivoting of the rod.
Abstract:
To provide an imaging device that can use a single illumination device to offer a light source suitable for imaging a translucent target object, while also enabling the imaging device to be mounted on a platform such as a desk. In case of slide film imaging, an illumination unit holding arm 150 is rotated into a position at a table side and an illumination unit 130 is brought into a sub illuminating attitude where the illumination unit 130 is laid over a top surface of the table 110. On that condition, a film stage 200 is mounted on the table 110 in a manner opposed to a camera head 120, and front end of a stage 202 is overlapped with and engaged to upper end of a casing of the illumination unit 130 that takes the sub illuminating attitude. Light irradiated by the illumination unit 130 in this state enters a region under the stage 202 of the film stage 200, goes through an opening 210 of the stage 202, and at last reaches the camera head 120.
Abstract:
A system and method are disclosed which provide a look-down digital imaging device capable of capturing relatively high resolution digital images (e.g., comparable to traditional flatbed scanners). A preferred embodiment provides a look-down digital imaging device comprising a linear sensor for imaging a raster line of an original image placed substantially below the look-down digital imaging device, and a lens for focusing reflected light from the original to such linear sensor. The linear sensor functions much as in traditional flatbed scanners in that it captures a single, congruent digital image of a scanned original. Most preferably, the linear sensor is a high resolution sensor that enables a digital image to be captured having resolution comparable to that of traditional flatbed scanners. For instance, the linear sensor preferably enables capture of a digital image having a resolution no less than approximately 300 dpi. As a result, such linear sensor most preferably captures a digital image having sufficient resolution to permit optical character recognition operations to be performed on such captured image. In a most preferred embodiment, the look-down digital imaging device further comprises a digital video camera for capturing video data of a target scan area. Such video data may be fed in substantially real-time to a display (either included within the look-down digital imaging device or included on a device to which the look-down digital imaging device is coupled), which may aid a user in properly aligning an original within the target scan area.
Abstract:
Provided is a camera support structure for a video presenter which allows rotation of a camera connected to a base of the video presenter and supports the camera in an accurate location. The camera support structure of a video presenter includes a support arm, one end of which is joined with the base, an rotation guide member that includes an annular member having a ring shape in which a plurality of ball receiving holes are formed on one end part of the support arm, biasing elements that includes a plurality of rotation-fixing balls which are inserted into the ball receiving holes from an inner side of the annular member and a portion of the balls are elastically protruded to an outer side of the annular member, a annular plate element, the rotation of which can be prevented by fixing by the rotation-fixing balls and disposed to be able to be rotated on an outer side of the annular member of the rotation guide member, and a camera head that rotates with the annular plate element by coupling with the annular plate element and fixes a camera head having a camera.
Abstract:
A dataconferencing system comprises an imaging device adapted to generate an image of a document. The system also comprises a light source adapted to generate light proximate to the document for generating the image. A monitor application accessible by a processor is adapted to detect a change corresponding to the document. A lighting application accessible by the processor is adapted to automatically activate the light source in response to the detected change.