Abstract: An image capturing device includes an image forming device including a sensor defining an optical reception axis, at least one reading distance, and a region framed by the sensor on a substrate at said at least one reading distance. An illumination device includes an array of adjacent light sources defining an optical illumination axis. The light sources are individually drivable, and each light source is adapted to illuminate an area of a size much smaller than the size of said region framed by the sensor. The illumination axis does not coincide with the reception axis. A driver of the light sources is adapted to drive the light sources so as to switch off at least the light sources that illuminate outside of the boundary of the region framed by the sensor on the substrate at said at least one reading distance.

Abstract: An image capturing device includes an image forming device including a sensor defining an optical reception axis, at least one reading distance, and a region framed by the sensor on a substrate at said at least one reading distance. An illumination device includes an array of adjacent light sources defining an optical illumination axis. The light sources are individually drivable, and each light source is adapted to illuminate an area of a size much smaller than the size of said region framed by the sensor. The illumination axis does not coincide with the reception axis. A driver of the light sources is adapted to drive the light sources so as to switch off at least the light sources that illuminate outside of the boundary of the region framed by the sensor on the substrate at said at least one reading distance.

Abstract: An image capturing device includes an image forming device including a sensor defining an optical reception axis, at least one reading distance, and a region framed by the sensor on a substrate at said at least one reading distance. An illumination device includes an array of adjacent light sources defining an optical illumination axis. The light sources are individually drivable, and each light source is adapted to illuminate an area of a size much smaller than the size of said region framed by the sensor. The illumination axis does not coincide with the reception axis. A driver of the light sources is adapted to drive the light sources so as to switch off at least the light sources that illuminate outside of the boundary of the region framed by the sensor on the substrate at said at least one reading distance.

Abstract: An apparatus for presentation reading of optical information with removable reader includes an optical information reader and a cradle or stand having a seat for seating the reader facing a predetermined optical information reading zone. The reader has an illuminator and the stand has an illuminator. A processor is configured to control a capture of an image of at least one portion of the reading zone, to analyze the image and, based on the analysis, to drive the switching on of either of the illuminator of the reader and/or the illuminator of the stand. The stand includes an optical component at the illuminator of the reader and/or at an aimer of the reader when seated in the seat, to define an aiming pattern and/or to modify the features of the illuminating beam of the reader.

Abstract: An image capturing device includes an image forming device including a sensor defining an optical reception axis, at least one reading distance, and a region framed by the sensor on a substrate at said at least one reading distance. An illumination device includes an array of adjacent light sources defining an optical illumination axis. The light sources are individually drivable, and each light source is adapted to illuminate an area of a size much smaller than the size of said region framed by the sensor. The illumination axis does not coincide with the reception axis. A driver of the light sources is adapted to drive the light sources so as to switch off at least the light sources that illuminate outside of the boundary of the region framed by the sensor on the substrate at said at least one reading distance.

Abstract: An apparatus for presentation reading of optical information with removable reader includes an optical information reader and a cradle or stand having a seat for seating the reader facing a predetermined optical information reading zone. The reader has an illuminator and the stand has an illuminator. A processor is configured to control a capture of an image of at least one portion of the reading zone, to analyse the image and, based on the analysis, to drive the switching on of either of the illuminator of the reader and/or the illuminator of the stand. The stand includes an optical component at the illuminator of the reader and/or at an aimer of the reader when seated in the seat, to define an aiming pattern and/or to modify the features of the illuminating beam of the reader.

Abstract: An optical component of an image acquisition device includes at least two faces each having a first optically active region, the first optically active regions of the at least two faces being assigned to optical functions homologous to each other, but according to different acquisition configurations, the at least two faces defining respective reference planes, the normals to the reference planes being differently oriented.

Abstract: An image capturing device includes an image forming device including a sensor defining an optical reception axis, at least one reading distance, and a region framed by the sensor on a substrate at said at least one reading distance. An illumination device includes an array of adjacent light sources defining an optical illumination axis. The light sources are individually drivable, and each light source is adapted to illuminate an area of a size much smaller than the size of said region framed by the sensor. The illumination axis does not coincide with the reception axis. A driver of the light sources is adapted to drive the light sources so as to switch off at least the light sources that illuminate outside of the boundary of the region framed by the sensor on the substrate at said at least one reading distance.

Abstract: An optical code reader of the imager type includes: at least one non-collimated light source having an illumination optics associated therewith including at least one lens; and a photodetector device having a receiving optics associated therewith including at least one lens, wherein the at least one lens of the illumination optics and the at least one lens of the receiving optics are displaceable together to change their distance from the at least one light source and from said photodetector device respectively.

Abstract: A laser light beam scanning device for reading coded information includes an emission source of a laser light beam, an optical element for scanning the laser light beam on a support containing coded information, an optical element for collecting the light coming from the support and photodetector means sensitive to the light collected by the collecting optical element so as to generate a representative signal of the information contained in the support. The collecting optical element is spatially distinct from, and integrally oscillating with, the scanning optical element and includes at least one transmissive input surface of the light coming from the support. In particular, the scanning optical element and the collecting optical element are part of a single scanning and light collecting optical element.

Abstract: An optical code reader of the imager type includes at least one light source and at least one illumination lens downstream of the at least one light source for projecting a predetermined illumination pattern. The at least one illumination lens comprises a first main face, wherein in a first direction, the first main face has a plurality of elementary regions, each of the elementary regions of the at least one illumination lens having a slope with respect to an optical axis of the reader that is individually calculated so that the elementary region deviates the light fraction coming from the at least one light source and incident thereon towards a specific elementary region of the illumination pattern.

Abstract: An optical component of an image acquisition device includes at least two faces each having a first optically active region, the first optically active regions of the at least two faces being assigned to optical functions homologous to each other, but according to different acquisition configurations, the at least two faces defining respective reference planes, the normals to the reference planes being differently oriented.

Abstract: A laser light beam scanning device for reading coded information includes an emission source of a laser light beam, an optical element for scanning the laser light beam on a support containing coded information, an optical element for collecting the light coming from the support and photodetector means sensitive to the light collected by the collecting optical element so as to generate a representative signal of the information contained in the support. The collecting optical element is spatially distinct from, and integrally oscillating with, the scanning optical element and includes at least one transmissive input surface of the light coming from the support. In particular, the scanning optical element and the collecting optical element are part of a single scanning and light collecting optical element.

Abstract: An optical code reader of the imager type includes: at least one non-collimated light source having an illumination optics associated therewith including at least one lens; and a photodetector device having a receiving optics associated therewith including at least one lens, wherein the at least one lens of the illumination optics and the at least one lens of the receiving optics are displaceable together to change their distance from the at least one light source and from said photodetector device respectively.

Abstract: An optical code reader of the imager type includes at least one light source and at least one illumination lens downstream of the at least one light source for projecting a predetermined illumination pattern. The at least one illumination lens comprises a first main face, wherein in a first direction, the first main face has a plurality of elementary regions, each of the elementary regions of the at least one illumination lens having a slope with respect to an optical axis of the reader that is individually calculated so that the elementary region deviates the light fraction coming from the at least one light source and incident thereon towards a specific elementary region of the illumination pattern.

Abstract: An optical device which emits a laser light beam (3) comprises a laser light beam emission source (20)(for example, a semiconductor laser diode) including a source of the laser light beam housed in a package (6) provided with a light beam emission window (11). The emission window is shaped so as to be a diaphragm (12) which selects a predetermined portion of the light beam. The size of the window is smaller than the size of the light beam in a transversal cross section taken at the emission window. Moreover, the device comprises a lens (13) for focusing the portion of the light beam. The focusing lens can in turn be housed in the emission window and be itself a diaphragm. In particular, the lens is a Fresnel or diffractive lens.

Abstract: The invention relates to an optical device for focusing a laser beam, comprising a source of emission of a laser beam, for example a substantially elliptic and astigmatic laser beam, a focusing lens of the laser beam and first aperture adapted to select a central portion of the laser beam. The first aperture is directly applied on the focusing lens, and comprises a coating made of a substantially opaque material which are applied (for example, by spraying, sputtering, evaporation, printing, painting) on a peripheral portion of a front surface of the focusing lens so as to allow the propagation of the central portion of the laser beam and obstruct the propagation of a surrounding portion of beam. The device of the invention is extremely simple from the constructive point of view, and is inexpensive and small-sized.

Abstract: The invention relates to an optical device for focusing a substantially elliptical laser beam comprising: means for collimating a substantially elliptical laser beam so to generate a collimated beam of substantially elliptical profile; means for circularizing the collimated beam so to generate a beam of substantially circularized profile; and means for focusing the circularized beam. The device according to the invention allows on one side to achieve better results in terms of increasing the depth of focus and overall efficiency of the system, and on the other side to allow reading of optical codes also when these are tilted with respect to the scan direction of an angle up to 45° (tilt angle).

Abstract: An optical code scanning reader comprising laser beam generating elements focused at different distances from an optical receiver element having an optical axis and a photoreceiver element having a preselected photosensitive area; the laser beams travel along a minimum of two different optical paths in the reader and at least one of the two optical paths is offset in respect to the optical axis; the value of the offset (Ho) is preselected in such a way that the quantity of light diffused by the code which reaches the photosensitive area for each beam attains a preselected value.

Abstract: There is described an optical device for emitting a laser light beam, comprising a laser light beam emission source (for example, a semiconductor laser diode) including means for generating the laser light beam housed into a package provided with a light beam emission window. The emission window is shaped so as to be a diaphragm intended to select a predetermined portion of the light beam. The size of said window is smaller than the size of the light beam in a transversal cross section taken at said emission window. Moreover, the device comprises a lens for focusing said portion of the light beam. The focusing lens can in turn be housed into the emission window and be itself a diaphragm. In particular, said lens is a Fresnel or diffractive lens.