Abstract:
An image capture unit and computer readable medium used in combination therewith is disclosed. In a preferred embodiment, the image capture unit includes an image capturing sensor, a visual display, an instance of the computer readable medium, and circuitry for integrating functionalities thereof. The computer readable medium causes sensor data received from the image capturing sensor to be processed. The sensor data includes a plurality of image tiles and position indicating data defining a respective relative position of each one of each image tiles. Each one of each image tiles includes data representing a discrete portion of visual content. The computer readable medium causes a feedback image be displayed on the visual display. Displaying the feedback image includes correlate the relative position of each one of each image tiles with at least one other image tile that has previously generated and displayed.
Abstract:
Disclosed is a portable magnifier camera that can be selectively positioned into a variety of configurations. At least four distinct viewing configurations are provided: a reading mode wherein the camera rests flatly upon the viewed object; a writing mode wherein the camera rests at an angle upon the viewed object; a hand-held mode wherein the user holds the camera relative to a distant object; and an inspection mode wherein the user holds the viewed object relative to the camera. These configurations enable a user to effectively view objects of differing size and at varying distances.
Abstract:
Disclosed is a magnification device for use by blind and/or low vision individuals. The device includes an X-Y table upon which an item to be magnified can be placed. A stationary camera arm and a pivotal monitor arm are oriented over the X-Y table. The monitor arm includes a video monitor pivotally mounted at its distal end. The camera arm also includes two laterally disposed lighting arms. A series of controls are provided along a lower edge of the monitor via a mounting bracket.
Abstract:
A purpose of the invention is to provide an electronic magnifier that can facilitate grasping of a position when a display portion is moved in a magnified display state and can improve the visibility. An image capturing section 11 captures an image of a target object such as a character or the like, and a display section 17 displays the captured image of the target object. An operation state determining section 14 determines an operation state based on an acceleration of a device body detected by an acceleration sensor 13. A display control section 16 changes a display magnification of the captured image of the target object based on a determination signal from the operation state determining section 14. Here, when an acceleration being equal to or greater than a predetermined value is detected, it is determined that an operation of high speed moving is carried out and a display state is changed to a normal display state in which the display magnification is decreased. When a predetermined time period has elapsed or an acceleration being equal to or less than a predetermined value is detected, the display magnification is gradually increased so as to change the display state to a magnified display state.
Abstract:
Disclosed is a magnification device for use by blind and/or low vision individuals. The device includes an X-Y table upon which an item to be magnified can be placed. A stationary camera arm and a pivotal monitor arm are oriented over the X-Y table. The monitor arm includes a video monitor pivotally mounted at its distal end. The camera arm also includes two laterally disposed lighting arms. A series of controls are provided along a lower edge of the monitor via a mounting bracket.
Abstract:
A handheld scanner system and method is disclosed. The depicted embodiment is a mouse scanner system operable to scan a document. In this embodiment, the mouse scanner system includes a scanner built into a computer mouse and a scanner software application operating on a computer. The scanner includes a positioning system operable to output position indicating data and an imaging system operable to output captured image data. The data is sent to the scanner software application where a feedback image is constructed and displayed on a display in real-time or near real-time to allow the user to view what areas have been scanned. The scanner software application also constructs an output image that can be printed, saved or communicated.
Abstract:
The maximum number of scaled images formed for one document and the scaling ratio set for each of scaled images are accepted by an operation panel, the basic scaling ratio is read from a table defining the scaled image arrangement information and the like, the scaling ratio of the original image data obtained by an image reading section is changed, and scaled images laid out on one sheet are generated. The generated plurality of scaled images are arranged according to the arrangement information defined by the table, and image formation is performed by an image forming section, thereby obtaining a multi-shot copy in which a plurality of images of different scaling ratio are laid out on one sheet.
Abstract:
An image reading system which, even if a user sets a transparent original of a wrong type in order to obtain a preview image, is capable of displaying the preview image which is suited to the type of the transparent original without executing pre-scanning again. When a film original is set on a scanner and an image is read therefrom to display a preview image, reading of the image is carried out by the same reading method irrespective of whether the film original is negative or positive. Image processing for displaying the preview image is changed according to the type of the film selected by the user.
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:
A digital camera for capturing the image of a document comprising two detachable components. A camera pickup component comprises a lens system, a digitizing photo-receiver, and a transceiver. A camera control component comprises a display, a trigger button, and a transceiver, wherein said camera pickup transceiver and said camera control transceiver exchange control and image information. The camera pickup component may be held over a document in one hand, while the camera control component is held separately in the other hand to increase ease of use and reduce blurred images.