Abstract: A self-contained mobile optical scanning system having an image scanner contained within a hollow inside space defined by mated engagement of an upper housing and a lower housing having corresponding upper and lower transparent windows having reduced margins and a scanning control interface rotatable through the enclosed space which allows scanning through the upper transparent window in either the upright or inverted condition by alignment of viewable indicator marks and overlap indicators in relation to an article which allows stitched alignment of a plurality of scanning cycles to generate images embeddable with metadata or data files.

Abstract: A self-contained mobile optical scanning system having an image scanner contained within a hollow inside space defined by mated engagement of an upper housing and a lower housing having corresponding upper and lower transparent windows having reduced margins and a scanning control interface rotatable through the enclosed space which allows scanning through the upper transparent window in either the upright or inverted condition by alignment of viewable indicator marks and overlap indicators in relation to an article which allows stitched alignment of a plurality of scanning cycles to generate images embeddable with metadata or data files.

Abstract: A method of transferring heat from a heat source to a heat sink using a variable-gap thermal-interface device is provided. The method comprises providing and rotating a multi-axis rotary spherical joint to an orientation to compensate for misalignment between the heat source and heat sink. The method further comprises providing a shim of thickness sufficient to fill a gap between the heat source and multi-axis rotary spherical joint, and inserting the shim to fill the gap.

Abstract: The present invention is directed to a method and apparatus for mitigating electromagnetic waves emanating from an electronic device. The apparatus comprises a cover member, a bight extending from one end of the cover member, and a retaining plate spaced from the cover member and connected to the bight to provide a biasing force away from the cover member and towards an electronic device. The cover member is configured to overlie an opening in the chassis of the electronic device and the retaining plate is configured to abut cabling extending out of the chassis. In this way, the apparatus attenuates electromagnetic waves radiating emanating from an opening in a chassis of an electronic device and conducted along cabling as a noise signal superimposed upon the intended signal.

Abstract: A method of transferring heat from a heat source to a heat sink using a variable-gap thermal-interface device is provided. The method comprises providing and rotating a multi-axis rotary spherical joint to an orientation to compensate for misalignment between the heat source and heat sink. The method further comprises providing a shim of thickness sufficient to fill a gap between the heat source and multi-axis rotary spherical joint, and inserting the shim to fill the gap.

Abstract: A cable protective shield assembly is provided for managing the position of computer cables. The assembly includes a base plate having a number of spacers formed on one surface, a cover plate having a number of bores extending through the plate at locations designated in alignment with the spacers of the base plate, and a corresponding number of fasteners for insertion through the bores of the cover plate into the spacers of the base plate to rigidly couple the plates together. The height of the spacers create a standoff distance between the base plate and cover plate defining a space for computer cables to extend. The spacers are also positioned across the base plate surface as to create specific passageways for the cables to be located. One or more ports can be placed along the perimeter of the cover plate to allow access to cable connectors while generally maintaining the organized position of the cables.

Abstract: A first unit comprises a projection having a first planar portion and a second planar portion, which intersect at an angle. The projection is an extension of the first unit, has a linear axis, and is perpendicular to a base end of the first unit. A second unit comprises a mounting face and a receptacle. The receptacle has a shape for receiving and holding the projection. The base end is aligned with the mounting face by inserting the projection into the receptacle. The receptacle engages the first planar portion and the second planar portion, thereby preventing rotation of the projection, the first unit and the second unit about the linear axis.

Abstract: An apparatus is provided for storing and accessing a cable within a chassis. The apparatus comprises a filler drive drawer having a base shelf, an upper biasing arm disposed on the base shelf and a pair of resilient raised arm members positioned on the base shelf laterally on opposite sides of the upper biasing arm. The upper biasing arm has a flange that extends upward from the base shelf and a cantilever member extending therefrom. The cantilever member extends at least partially downward to provide an upper contact surface for a cable connector positioned below the upper biasing arm. The upper biasing arm and pair of resilient arm members are cooperatively arranged to releasably engage the cable connector within the filler drive drawer. The drawer can easily be slid into or out of the chassis to access the cable connector.

Abstract: A contact image sensor includes a light sensitive optical detector and a light source mounted on a mounting surface. A light guide is located under the light source and is oriented to direct a light path from the light source to a scan line region under the light sensitive optical detector.

Abstract: An apparatus is provided for storing and accessing a cable within a chassis. The apparatus comprises a filler drive drawer having a base shelf, an upper biasing arm disposed on the base shelf and a pair of resilient raised arm members positioned on the base shelf laterally on opposite sides of the upper biasing arm. The upper biasing arm has a flange that extends upward from the base shelf and a cantilever member extending therefrom. The cantilever member extends at least partially downward to provide an upper contact surface for a cable connector positioned below the upper biasing arm. The upper biasing arm and pair of resilient arm members are cooperatively arranged to releasably engage the cable connector within the filler drive drawer. The drawer can easily be slid into or out of the chassis to access the cable connector.

Abstract: A cable protective shield assembly is provided for managing the position of computer cables. The assembly comprises a base plate having a number of spacers formed on one surface, a cover plate having a number of bores extending through the plate at locations designated in alignment with the spacers of the base plate, and a corresponding number of fasteners for insertion through the bores of the cover plate into the spacers of the base plate to rigidly couple the plates together. The height of the spacers create a standoff distance between the base plate and cover plate defining a space for computer cables to extend. The spacers are also positioned across the base plate surface as to create specific passageways for the cables to be located. One or more ports can be placed along the perimeter of the cover plate to allow access to cable connectors while generally maintaining the organized position of the cables.

Abstract: A first unit comprises a projection having a first planar portion and a second planar portion, which intersect at an angle. The projection is an extension of the first unit, has a linear axis, and is perpendicular to a base end of the first unit. A second unit comprises a mounting face and a receptacle. The receptacle has a shape for receiving and holding the projection. The base end is aligned with the mounting face by inserting the projection into the receptacle. The receptacle engages the first planar portion and the second planar portion, thereby preventing rotation of the projection, the first unit and the second unit about the linear axis.

Abstract: A drive unit quick release apparatus is provided on one guide rail of a pair of guide rails mounted to the drive unit for engaging and releasing a drive unit from a chassis. The apparatus includes a resilient cantilevered arm mounted to the drive unit, an engaging structure positioned on the arm to selectively maintain the drive unit in the chassis, and a lever connected to the resilient arm to facilitate disengaging the engagement structure and removing the drive unit from the chassis. The lever is positioned generally perpendicular to the resilient arm and to the axis of travel of the drive unit out of a bay in the chassis. In this configuration, a force applied to the lever causes the resilient arm to flex inwardly and disengage the engaging structure from a retaining slot in the chassis. Additionally, the continued application of the force to the lever moves the attached drive unit out of the chassis.

Abstract: The present invention provides an optics module for a scanning device such as a portable scanner. The optics module includes an illumination source and guide that transmits light through an optical window of the scanning device casing before reflecting off of the object to be scanned. The reflected light from the object travels back through the optical window and a lens before reaching a photosensor for evaluation by an associated microprocessor. The optical window of the scanning device provides a recessed portion in the scanning device casing. The recessed portion of the window is formed using the functional components of the optics module to eliminate a piece of glass typically used within the optical window that can be easily scratched or broken and provides a loss during the illumination process.

Abstract: An integrated optical imaging assembly for scanning an object may comprise a printed circuit board having an upper end and a lower end. An optical detector is mounted to the upper end of the printed circuit board at an end of an image light path, and a lens system is mounted to the printed circuit board below the optical detector to be interposed in the image light path. A reflector is mounted to the lens in the image light path between the lens and the optical detector to direct the image light path between the lens and the optical detector. An illumination source is mounted to the lower end of the circuit board to illuminate a second end of the image light path below the lens, and an illumination reflector is mounted to the lens opposite the illumination source to direct an illumination light path from the illumination source toward the image light path below the lens.

Abstract: A method and apparatus for centering an optical component, such as a lens element, within an optical bore sleeve. The optical component has an outer perimeter, and the optical bore sleeve has an inner perimeter for receiving the outer perimeter of the optical component. A plurality of deformable ridges are interposed between the outer perimeter of the optical component and the inner perimeter of the sleeve for aligning the optical component and the sleeve along a common optical axis as the ridges are deformed upon insertion of the optical component into the sleeve.

Abstract: A portable scanner may comprise a first image detector and a second image detector placed in spaced apart relation to the first image detector. A plurality of position detectors is located between the first image detector and the second image detector for detecting a position of the portable scanner. A portable scanner may also comprise an image detector having a first side and a second side opposite said first side. A first plurality of position detectors is located adjacent the first side of the image detector. A second plurality of position detectors is located adjacent the second side of the image detector.

Abstract: A smart charger that includes a housing with an interface for power and data transmission and adapted for connection to a communication device, with a second interface adapted for connection to a power source, and with a third interface adapted for connection to a second communication device. A charger within the housing is connected to the second interface to receive power, and connected to the first interface to provide charging power. A control module within the housing provides for communication between the first interface and the third interface.

Abstract: An integrated optical imaging assembly for scanning an object may comprise a printed circuit board having an upper end and a lower end. An optical detector is mounted to the upper end of the printed circuit board at an end of an image light path, and a lens system is mounted to the printed circuit board below the optical detector to be interposed in the image light path. A reflector is mounted to the lens in the image light path between the lens and the optical detector to direct the image light path between the lens and the optical detector. An illumination source is mounted to the lower end of the circuit board to illuminate a second end of the image light path below the lens, and an illumination reflector is mounted to the lens opposite the illumination source to direct an illumination light path from the illumination source toward the image light path below the lens.

Abstract: An integrated optical imaging assembly for scanning an object may comprise a printed circuit board having an upper end and a lower end. An optical detector is mounted to the upper end of the printed circuit board at an end of an image light path, and a lens system is mounted to the printed circuit board below the optical detector to be interposed in the image light path. A reflector is mounted to the lens in the image light path between the lens and the optical detector to direct the image light path between the lens and the optical detector. An illumination source is mounted to the lower end of the circuit board to illuminate a second end of the image light path below the lens, and an illumination reflector is mounted to the lens opposite the illumination source to direct an illumination light path from the illumination source toward the image light path below the lens.