Abstract:
Transparency imaging systems and methods. One embodiment of the transparency imaging system comprises an imaging surface and a cover mounted adjacent the imaging surface. A media adapter is provided as part of the cover, and a chamber is formed in the media adapter. At least one template is receivable within the chamber formed in the media adapter, the at least one template loading the transparency media in the media adapter adjacent the imaging surface for an imaging operation.
Abstract:
A scanner. The scanner comprises a mask, a document holder and a controller. The mask has a sensor disposed on the surface thereof. The document holder has a identification portion disposed on the surface thereof. The sensor detects the identification portion and sends an identification signal to the controller. The controller determines a document type and directs the scanner to scan the document according to the identification signal.
Abstract:
The present invention relates to an image scanning apparatus and more particularly to a dual transmissive/reflective image scanning apparatus with protective apparatus. The present invention includes a housing, an original cover, a tray of a first type, and a tray of a second type. The housing provides a slot, within which the tray of the first type or the tray of the second type may be selectively inserted. The tray of the first type is inserted within the slot for reflective scanning, while on the other hand, the tray of the second type is selectively inserted within the slot for transmissive scanning. In addition, a first device is provided within the housing, and the tray of the first type has a second device for selectively coupling with the first device. The original cover has a third device for selectively coupling with the first device. The original cover is not allowed to open as the tray of the second type is inserted within the slot, whereas the original cover is allowed to open as the tray of the first type is inserted within the slot. As the original cover is open, the tray of the first type is not allowed to be withdrawn from the slot. However, as the original cover is closed, the tray of the first type or the tray of the second type is allowed to be withdrawn from the slot.
Abstract:
A light gathering apparatus of a scanner is disclosed. A light source module of the light gathering apparatus is separated from a scanning module and is disposed on the main body of the scanner chassis, and a light gathering device and a light guiding device are used to guide light onto a scanning line of an original document. Because the light source module is separated from the scanning module, it is beneficial for miniaturization design of the scanner, and the scanner is easy to be cooled down, thereby decreasing noise and distortion resulted from a charged coupled device (CCD), reflection mirrors, or the main body of the scanning module being heated.
Abstract:
A digitizer having an illuminator with a mask configured to rotate about a central axis for reducing flare from the illuminator when digitizing a data medium having a width less than an associated length of the illuminator. A page width guide of the digitizer may be operatively coupled to the mask so that movement of the page width guide automatically rotates the mask a predetermined amount. A rare gas, external electrode, cold cathode fluorescent lamp may also be utilized as an illuminator in the digitizer.
Abstract:
An optical image scanning device includes a casing having a document supporting plate and a top cover. The top cover has an underside surface coated with a fluorescent material thereon. An optic module includes a light source for projecting an exciting light onto the fluorescent layer whereby the fluorescent material is excited by the exciting light to emit a scanning light. The scanning light transmits through a light-transmittable document and projects an image of the document onto reflective mirrors for guiding the scanning light through a focusing lens. The focusing lens focuses the light onto a image sensing device. A reflective type light source is selectively arranged in the optic module for selectively projecting a light onto a document formed on a non-transmissive medium that is positioned on the document supporting plate.
Abstract:
A light diverting channel for use in a scanner. The channel is incorporated into the cover of a flat bed scanner and transmits light from the lamps positioned longitudinally along the scanner, up through the side of the channel, and through a central region or sheet of the channel, and then down through objects to be scanned. The light diverting channel thereby more efficiently uses the light generated by the lamps and more evenly disburses the light over and through the object to be scanned.
Abstract:
An image reading apparatus includes a line light source having a light guide plate and red-, green-, and blue-LEDs, for a light transmitting original, and a contact image sensor unit for detecting light from the line light source. The light transmitting original is arranged between the line light source and the contact image sensor unit. The light transmitting original is read by moving the line light source and the contact image sensor unit relative to the light transmitting original. The line light source is moved interlockingly with the contact image sensor unit by the attraction between a magnet provided at both ends of the line light source in the longitudinal direction thereof and a magnet provided at both ends of the contact image sensor unit in the longitudinal direction thereof.
Abstract:
An image scanning device with a rotatable reflection mirror arranged in an optical scanning module thereof for establishing either a reflective or transparent scanning optical path is disclosed. The optical scanning module includes a first focusing lens, a second focusing lens, an image sensing module, a plurality of fixed reflective optical path mirrors, a plurality of fixed transparent optical path mirrors, and a rotatable reflection mirror. At scanning a reflective document, the rotatable reflection mirror is rotated to a first reflection position. A light beam from a first light source projects to the reflective document. The image of the reflective document is reflected by the rotatable reflection mirror and the fixed reflective optical path mirrors, and then received by the image sensing module through the first focusing lens. At scanning a transparent document, the rotatable reflection mirror is rotated to a second reflection position. A light beam from a second light source projects to the transparent document. The image of the transparent document is reflected by the rotatable reflection mirror and the fixed transparent optical path mirrors, and then received by the image sensing module through the second focusing lens.
Abstract:
It is an object of the present invention to provide an excellent image reading apparatus that realizes miniaturization and reduces a total reading time at the time of reading a transparent original and, in addition, improves operability. In order to attain this object, since the image reading apparatus has a configuration in which a light source driving circuit section is disposed to overlap in the upward direction separating from an original mounting surface of a surface light emitting section, an area occupied by the light source driving circuit section and the surface light emitting section on a horizontal surface becomes small and miniaturization can be realized. In addition, since the light source driving circuit section and the surface light emitting section can be disposed in a position close to a hinge section altogether, the center of gravity of an FAU is moved to the hinge section side, and rotatability of the hinge section becomes easy and is improved. Since an image reading unit has its hinge section side as an HP, a time taken by the image reading unit for moving from the HP to below the surface light emitting section, where a transparent original is disposed at the time of starting to read the transparent original, can be reduced.