Abstract: An optical reading device is described having an image sensor having a sensor array of pixels which are exposed to an image; a printed circuit board (PCB) for carrying the image sensor; a lens assembly for focusing light on the sensor array; a lens retainer for retaining the lens; a support assembly integral with the lens retainer, the support assembly having a containment section for containing the image sensor; and a thermally and electrically conductive elastomeric gasket disposed between the containment section and the image sensor and for contacting the image sensor.

Abstract: An apparatus for use in optical reading can comprise an image sensor and a circuit board, and can further comprise a support assembly. An apparatus for use in optical reading can also comprise a light source and imaging optics.

Abstract: Embodiments of the present invention comprise an indicia reading terminal including a focus element that extends the range of focus distances at which the indicia reading terminal can decode decodable indicia. In one embodiment, the focus element comprises a variable form element and a variable position element, the combination of which causes an image distance that can change in accordance with a separation distance between these two elements. The focus element can comprise an actuator, e.g., a piezoelectric actuator, which can be coupled to the variable position element in a manner that can cause the variable position element to deform the variable form element, and in one example, the deformation changes the focal length of the variable form element.

Abstract: An optical reader can include an image sensor. In one embodiment an optical reader can be configured to have different operating modes, the different operating modes optimizing the reader for reading different indicia. In another embodiment an optical reader can comprise a multiple color emitting light source. In another embodiment an optical reader can be provided in a specialized form factor including an enlarged head portion and an elongated body portion extending from the head portion.

Abstract: There is described a focusing apparatus having a deformable membrane that at least partially defines a cavity and an optical fluid disposed in the cavity. An actuator assembly can be provided for imparting a force to the deformable membrane. In one embodiment, the actuator assembly can include a piezoelectric actuator.

Abstract: A portable data terminal including an elongated housing and a vertical grip. The housing has a battery well that extends traverse to a longitudinal axis of the housing. A battery pack has a longitudinal axis that, when seated in the battery well, extends traverse to a longitudinal axis of the housing, the battery pack having an integrated latch that engages a recess in the battery well.

Abstract: There is described an indicia reading terminal having an image sensor array including a plurality of pixels, a first optical assembly for focusing imaging light rays onto a first set of pixels of an image sensor array and a second optical assembly for focusing imaging light rays onto a second set of pixels of the image sensor array. The indicia reading terminal can be adapted to process image data corresponding to pixels of the image sensor array for attempting to decode a decodable indicia.

Abstract: An optical reader can include an image sensor. In one embodiment an optical reader can be configured to have different operating modes, the different operating modes optimizing the reader for reading different indicia. In another embodiment an optical reader can comprise a multiple color emitting light source. In another embodiment an optical reader can be provided in a specialized form factor including an enlarged head portion and an elongated body portion extending from the head portion.

Abstract: There is described a decodable indicia reading terminal which in one embodiment can capture and process a certain (e.g., a first) and a subsequent (e.g., a second) frame of image data, wherein the certain and the subsequent frames have different imaging attributes. In one embodiment the attributes between certain and subsequent frames are differentiated in that the certain frame represents light incident on pixels of a first image sensor and the subsequent frame of image data represents light incident on pixels of a second image sensor spaced apart from the first image sensor. Additionally, or in the alternative, the attributes between certain and subsequent frames can be differentiated in that the first frame represents light incident on an image sensor under a first illumination profile and the subsequent frame represents light incident on pixels of an image sensor under a second illumination profile.

Abstract: A portable data terminal including an elongated housing and a vertical grip. The housing has a battery well that extends traverse to a longitudinal axis of the housing. A battery pack has a longitudinal axis that, when seated in the battery well, extends traverse to a longitudinal axis of the housing, the battery pack having an integrated latch that engages a recess in the battery well.

Abstract: An imaging module can comprise an image sensor and first and second circuit boards. A support assembly can also be included in the imaging module. Further included in the imaging module can be a support post.

Abstract: An imaging module in one embodiment includes at least one multiple color emitting light source comprising a plurality of different colored LED dies each independently driveable so that the overall color emitted by the light source can be controlled and varied. The multiple color emitting light source can be controlled so that the color emitted by the light source is optimized for imaging or reading in a present application environment of the module. Further, the module can be configured so that control of the multiple color emitting light source automatically varies depending on a sensed condition, such a color present in a field of view of the module, the distance of the module to a target, and/or a predetermined criteria being met so that feedback is provided to a user. The module in a further aspect can include illumination light sources and aiming light sources which project light in different wavelength emission bands.

Abstract: A point of sale transaction terminal having a flat wall surface containing a signature capture pad and further includes electrical lead lines that surround the capture pad and carry signature related data to an x-y register or the like. A lower cover panel is placed upon a wall that surrounds the capture pad so that the panel physically covers the lead lines. The lower cover panel is secured to the wall surface by a relatively strong bonding material which provides a tight seal between the panel and the wall surface which prevents water and dirt from passing beneath the panel. An upper cover panel having a protective window that is mounted within a frame is placed in registration over the lower cover panel so that the window is centered over the capture pad. The upper cover panel is releasably secured to the lower cover panel by an adhesive so that the upper panel can be easily removed from the assembly and replaced in the event the protective window is worn or damaged.

Abstract: An imaging module in one embodiment includes a printed circuit board, an image sensor electrically connected to the printed circuit board, a support assembly for supporting at least one optical element, and an illumination system for generating an illumination pattern onto a target. The illumination system may include illumination light sources and diffusers for diffusing light from the illumination light sources. The module may further include an aiming system having an aiming light source, an aperture for stopping light from the aiming light source, and an optical element for projecting an aiming pattern into target area. Either or both of the illumination and aiming systems may include light redirecting elements such as mirrors or prisms.

Abstract: An imaging module in one embodiment includes at least one multiple color emitting light source comprising a plurality of different colored LED dies each independently driveable so that the overall color emitted by the light source can be controlled and varied. The multiple color emitting light source can be controlled so that the color emitted by the light source is optimized for imaging or reading in a present application environment of the module. Further, the module can be configured so that control of the multiple color emitting light source automatically varies depending on a sensed condition, such a color present in a field of view of the module, the distance of the module to a target, and/or a predetermined criteria being met so that feedback is provided to a user. The module in a further aspect can include illumination light sources and aiming light sources which project light in different wavelength emission bands.

Abstract: An imaging module in one embodiment is adapted so that a position of a lens assembly can be finely adjusted relative to a position of an image sensor. A retainer and lens assembly according to the invention are complimentary configured so that the lens assembly is slidably received in the retainer. The retainer include in one embodiment two apertures defined in sidewalls thereof. The first aperture accommodates a fixture pin for use in finely adjusting the position of the lens assembly within the retainer. The second aperture accommodates an adhesive material for adhesively bonding the lens assembly to the retainer. Adhesive material may further be applied in the first aperture.

Abstract: An imaging module in one embodiment includes a printed circuit board, an image sensor electrically connected to the printed circuit board, a support assembly for supporting at least one optical element, and an illumination system for generating an illumination pattern onto a target. The illumination system may include illumination light sources and diffusers for diffusing light from the illumination light sources. The module may further include an aiming system having an aiming light source, an aperture for stopping light from the aiming light source, and an optical element for projecting an aiming pattern into target area. Either or both of the illumination and aiming systems may include light redirecting elements such as mirrors or prisms.

Abstract: An imaging module in one embodiment includes an aiming system having a light source, an aperture and an optical element positioned optically forward of the aperture wherein the aiming system projects a crisp and sharp aiming pattern onto a target over a wide range of distances. In one embodiment, an aiming system is configured so that a lens operates as an aperture to project a crisp sharp aiming pattern over a wide range of distances including distances at which the aiming pattern is less than optimally focused. In another embodiment an aiming system is configured so that light emanating from a thin aperture is imaged in such manner that a crisp, sharp aiming pattern is defined over a wide range of distances. The aiming pattern in one embodiment includes sharply defined lateral edges which are useful in sighting target indicia.

Abstract: The invention is a method and associated apparatus for mounting an optical subassembly of an optical reading device onto an image sensor subassembly of an optical reading device with use of solder as a bonding material. In accordance with the invention, solderable surfaces are formed on either or both an optical subassembly and an image sensor subassembly. For mounting of the optical subassembly onto the image sensor subassembly, an assembly station worker aligns optical and imaging elements by observing indicia corresponding to electrical signals generated by the image sensor under controlled conditions, and then, when alignment is established, solders the subassemblies at any interfaces that are defined by the solderable surfaces. The solderable surfaces of either or both the optical or image sensor assemblies may be made in irregular configurations having increased surface areas per unit three dimensional space relative to that of a smooth surface.