A bioptic scanner optical arrangement with a single sensor split four ways is disclosed herein. An example bioptic scanner optical arrangement includes a housing, an imaging assembly having a primary FOV, a decode module, a generally horizontal window supported by the housing, a generally upright window supported by the housing, and a mirror arrangement positioned within the interior region. The mirror arrangement is configured to divide the primary FOV into a plurality of subfields, to redirect at least two of the plurality of subfields through the generally horizontal window, and to redirect at least another two of the plurality of subfields through the generally upright window. The bioptic barcode reader has no other imaging assembly communicatively coupled to the decode module and used to process images for decoding indicia.

Provided is an optical information reading device that can reduce an installation load on a user, and can accurately read a code provided to each of various workpieces. A polarized illumination light source includes light emitters that irradiate the workpiece with illumination light through a polarization filter. A non-polarized illumination light source includes light emitters that irradiate the workpiece with illumination light without through a polarization filter. An imaging element is provided with a polarization filter having a polarization direction different from a polarization direction of the polarization filter of the light emitters. Either of the polarized illumination light source and the non-polarized illumination light source is used in accordance with the workpiece.

Embodiments include a method and associated point-of-sale (POS) terminals. The method comprises receiving a receptacle into a stationary position within a scan zone arranged proximately to a surface. The receptacle contains one or more items. The method further comprises acquiring, using a first visual sensor having a predefined disposition relative to the surface, first image information that includes a first view and at least a second view of the scan zone. The second view is provided via a first mirror of one or more mirrors disposed near the surface and arranged around the scan zone. The second view includes a view of the one or more items relative to a surface of the receptacle. The method further comprises identifying, using image analysis of the first image information, the one or more items.

A device (1, 33) for readout of and/or communication with a consumer carried token is proposed comprising a first area (5) for wireless radiofrequency detection and/or communication; and a second area (6) spatially separated from said first area for a wireless optical detection and/or communication; wherein said first area (5) is located above said second area (6). Said second area (6) comprises a cavity with at least a front opening (53) for inserting said token by a user, bordered by at least a bottom surface (7), a backside wall (41), and a top illumination unit (54), wherein said top illumination unit (54) comprises at least one essentially vertical translucent skirt (8) with its free edge (55) pointing towards the second area (6); as well as an opening (9). Behind and/or below said first area (5) a scanning light source as well as scanning camera is located, both aiming in an upward direction, and above said scanning light source as well as scanning camera a mirror (20) is mounted, for at the same time deflecting the scanning light beam (21) and directing it (22) into said second area (6) onto said bottom surface (7) through said opening (9) in an essentially vertical direction.

A bioptic scanner optical arrangement with a single sensor split four ways is disclosed herein. An example bioptic scanner optical arrangement includes a housing, an imaging assembly having a primary FOV, a decode module, a generally horizontal window supported by the housing, a generally upright window supported by the housing, and a mirror arrangement positioned within the interior region. The mirror arrangement is configured to divide the primary FOV into a plurality of subfields, to redirect at least one of the plurality of subfields through the generally horizontal window, and to redirect at least another two of the plurality of subfields through the generally upright window. The bioptic barcode reader has no other imaging assembly communicatively coupled to the decode module and used to process images for decoding indicia.

A device (1, 33) for readout of and/or communication with a consumer carried token is proposed comprising a first area (5) for wireless radiofrequency detection and/or communication; and a second area (6) spatially separated from said first area for a wireless optical detection and/or communication; wherein said first area (5) is located above said second area (6). Said second area (6) comprises a cavity with at least a front opening (53) for inserting said token by a user, bordered by at least a bottom surface (7), a backside wall (41), and a top illumination unit (54), wherein said top illumination unit (54) comprises at least one essentially vertical translucent skirt (8) with its free edge (55) pointing towards the second area (6); as well as an opening (9). Behind and/or below said first area (5) a scanning light source as well as scanning camera is located, both aiming in an upward direction, and above said scanning light source as well as scanning camera a mirror (20) is mounted, for at the same time deflecting the scanning light beam (21) and directing it (22) into said second area (6) onto said bottom surface (7) through said opening (9) in an essentially vertical direction.

A polygon scanner (10) for detecting objects (24) in a monitored zone (22) is provided having a light transmitter (12); having a light receiver (30); having an evaluation unit (32); and having a rotatable mirror unit (20) for a periodic deflection of the light beam (16) that has a plurality of mirror facets (34) in order thus to scan an angular section multiple times per rotation of the mirror unit (20) by a respective mirror facet (34), wherein at least some of the mirror facets (34) have a different curvature from one another. In this respect, at least one of the mirror facets (34) is configured as a free-form surface whose curvature is adapted to the angle of incidence of the transmitted light beam (16) on the mirror facet (34) that varies during the rotation of the mirror unit (20).

Discussed is a cell tracking device that can include a transfer section configured to transfer a plurality of battery cells; and a reading section arranged on the transfer section and configured to read a marking part including information unique to each of the plurality of battery cells, wherein the reading section comprises a light source that radiates light on the marking part; a first mirror located adjacent to the marking part and illuminating a first image of the marking part; and a second mirror located at a central part of the reading section and illuminating the first image of the marking part illuminated on the first mirror.

Provided is an optical information reading device that can reduce an installation load on a user, and can accurately read a code provided to each of various workpieces. A polarized illumination light source includes light emitters that irradiate the workpiece with illumination light through a polarization filter. A non-polarized illumination light source includes light emitters that irradiate the workpiece with illumination light without through a polarization filter. An imaging element is provided with a polarization filter having a polarization direction different from a polarization direction of the polarization filter of the light emitters. Either of the polarized illumination light source and the non-polarized illumination light source is used in accordance with the workpiece.

Provided is an optical information reading device that can reduce an installation load on a user, and can accurately read a code provided to each of various workpieces. A polarized illumination light source includes light emitters that irradiate the workpiece with illumination light through a polarization filter. A non-polarized illumination light source includes light emitters that irradiate the workpiece with illumination light without through a polarization filter. An imaging element is provided with a polarization filter having a polarization direction different from a polarization direction of the polarization filter of the light emitters. Either of the polarized illumination light source and the non-polarized illumination light source is used in accordance with the workpiece.