Abstract: A battery support for a scanning device includes a separator plate and multiple elongate battery guides. The separator plate includes multiple mounting supports to engage mounting portions of the interior of the head portion to install the separator plate within the casing. The multiple elongate battery guides extend from the handle-side surface of the separator plate into the interior of the handle portion when the separator plate is installed within the casing. The multiple elongate battery guides engage a removable battery as the battery is inserted into a second end of the handle portion opposite a first end to guide a battery mating connector towards a scanner battery connector. The multiple battery guides continue to engage the removable battery while the battery connector engages the mating connector. The multiple battery guides are configured to prevent exertions of physical stress on the battery connector through the mating connector by the battery.

Abstract: A system controlled responsive at least in part to data read from data bearing records is operative to cause vehicle repair parts to be determined and furnished. Data read by a reader from a tag associated with a damaged vehicle is used to determine vehicle identifying data. A repair estimate calculation circuit (RECC) operates responsive to the read data to produce a needed parts record (NPR). The records produced by the RECC are operative to cause a vehicle repair entity (VRE) to be furnished the vehicle repair parts.

Abstract: A precise photoelectric sighting system that is simple in shooting calibration, quick and accurate in sighting, adapts to any environmental factor, and may greatly reduce the use of sensors and realize binocular sighting. The system includes a field-of-view acquisition unit, a display unit, a ranging unit and a sighting circuit unit; and precise shooting under any environment is realized by applying the integrated precise photoelectric sighting system. The calibration method of the photoelectric sighting system enables quick and precise calibration.

Abstract: A laser system operationally coupled to an aimable device having a Line of Sight (LOS), and adapted for providing a graphic laser display, including: at least one laser source adapted to generate: a first laser output, displaying a fixed pattern at a hit point having a fixed orientation relative to an axis of the LOS of the aimable device, and a second laser output, forming the graphic laser display; a motion control mechanism adapted to direct at least the second laser output; a tracking system configured to track at least one target; and a processing unit, configured to receive tracking data relating to a location of the at least one target relative to the LOS of the aimable device and instruct the motion control mechanism to direct the second laser output to display the graphic laser display on the at least one target.

Abstract: A transaction card includes a first full thickness portion and a second, reduced thickness portion. Each of the first and second portions includes a top surface and an opposing bottom surface spaced from the top surface by a thickness of the card. The first, full thickness portion includes an extent of the card that remains exposed when the card is inserted into a pocket of a card-carrying case, and a feature deviating from a flat region along at least one of the top surface and the opposing bottom surface of the card. The feature is configured for tactile engagement to facilitate removal of the card from the pocket.

Abstract: An asset management system comprises a control function module configured to manage a set of rack-mounted devices having a corresponding allocated rack space when the devices are sparsely distributed over multiple cabinets, possibly in different data centers. The aggregate rack space occupied by the set of devices does not exceed the allocated rack space. A user interface is communicatively coupled to the control function module and configured to generate a virtual representation visible to a user of the set residing in a virtual cabinet corresponding to the allocated rack space. The user interface includes a user control to enable the user to interact with the set of devices. The asset location system can comprise a radio frequency identification (RFID) system to locate and track the devices, and select a subset of the devices to display and control based on filter parameters.

Abstract: Lighting fixture include an elongated support and at least one lighting element. The support operably attachable to a wall or a ceiling. The least one lighting element includes a lighting unit and a continuous surrounding member. The continuous surrounding member has an inner surface and an outer surface defining a first opening and a second opening. The elongated support extends through a first portion of the surrounding member spaced from the first opening and spaced from the second opening and extends through a second portion of the surrounding member spaced from the first opening and spaced from the second opening. The lighting unit is disposed in a cavity and spaced from the inner surface of the surrounding member to define a surrounding area between the lighting unit and the inner surface of the surrounding member.

Abstract: A method includes printing a first magnetic material onto a substrate. The first magnetic material has a first magnetic characteristic and encodes first information based on the first magnetic characteristic. The method further includes printing a second magnetic material onto the substrate. The second magnetic material encodes second information and has a second magnetic characteristic different from the first magnetic characteristic. The second information is encoded based on the second magnetic characteristic.

Abstract: Described herein is source sensitive optic that uses reconfigurable chip-on-board (CoB) light emitting diode (LED) arrays as light sources. In an implementation, the reconfigurable CoB LED array includes a predetermined number of LEDs that are configurable for a variety of illumination scenarios. In an implementation, the reconfigurable CoB LED array is multiple CoB LED arrays that are configured for use with the source sensitive optic as described herein. The source sensitive optic includes surface shapes that are responsive to the reconfigurable CoB LED array. The source sensitive optic is configured to provide beam profile and radiation pattern differentiation based on a CoB LED array configuration configured from the reconfigurable CoB LED. Each configurable CoB LED array configuration radiates a different beam pattern via the surface shapes due to proximity and surface shape geometries.

Abstract: A light has a light base body and lighting segments, which can be inserted into the light base body. Each of the lighting segments here emits light in a directional manner and has a predefined emission characteristic. Moreover, the emission characteristics of the lighting segments comprise at least two different emission characteristics.

Abstract: Provided are systems and methods of attendance verification using mobile electronic devices (or “mobile devices”). In some embodiments, a person's biometric data is acquired and verified locally by a mobile device associated with the person while the mobile device is located in a geographic region associated with an event, and attendance data, including an indication of the verification of the biometric data along with a unique identifier of the mobile device, such as an international mobile equipment identity (IMEI) of the mobile device, is transmitted to an attendance server that makes a record of the person's attendance of the event based on the attendance data.

Abstract: A card reader may include a wireless user interface; a host connecting interface structured to connect with the host device of the system; and a wireless communication interface structured to connect with the mobile terminal. The wireless user interface may be structured to communicate with the host device through the host connecting interface and with the mobile terminal through the wireless communication interface.

Abstract: Methods and apparatuses are disclosed for managing components within a server using radiofrequency communications. The methods and apparatuses disclosed employ a server having a chassis with a plurality of slots. Each slot of the plurality of slots is configured to connect a removable electronic component to the chassis. The server also includes a controller configured to manage the removable electronic components connected to the chassis. The server also includes at least one RFID reader communicatively connected to the controller. The at least one RFID reader is configured to interrogate one or more RFID tags of the removable electronic components connected to the chassis and provide information from the one or more RFID tags to the controller.

Abstract: A light-emitting device includes a light-emitting element, first and second light-transmissive members disposed on the light-emitting element, a light-guiding member, and a light-reflective member. A perimeter of a lower surface of the first light-transmissive member is disposed inwardly of a perimeter of an upper surface of the light-emitting element in a plan view. The light-guiding member covers the upper surface of the light-emitting element and the lower surface and lateral surfaces of the first light-transmissive member. The light-guiding member does not cover an upper surface of the second light-transmissive member and at least a portion of a lateral surface of the second light-transmissive member continuous. The light-reflective member covers lateral surfaces of the light-guiding member and at least the portion of the lateral surface of the second light-transmissive member exposed from the light-guiding member.

Abstract: A method and apparatus for detecting a bulk quantity of RFID tags in a presentation area such as a point-of-sale device. Bulk quantity of RFID tags may be detected according to input to the point-of-sale device including through input from a symbolic barcode scanner, a conveyor belt, a weight scale, and/or via an RF antenna driven at a first power level. After the bulk quantity of RFID tags is detected, the RF antenna is driven at a second, higher power level temporarily to increase bulk RFID tag detection accuracy. “Fringe” tags may be detected by the RF antenna when it is driven at the higher power level that are in the environment but not presented at the point-of-sale device. Fringe tags may be filtered based on RF characterization of the presentation area including driving the RF antenna outside of presentation sessions and/or filtering RFID tags detected across multiple presentation sessions.

Abstract: An inner lens for a light module includes a first plurality of clips positioned on a lower surface of the inner lens configured to engage with a corresponding first plurality of protrusions of a light frame module; and a second plurality of clips positioned on an upper surface of the inner lens configured to engage with a corresponding second plurality of protrusions of the light frame module. The inner lens is configured to be mounted to the light frame module from a rear side of the light frame module.

Abstract: A lighting arrangement comprises a channel having an interior and a light exit region, and at least one light providing device. The light providing device is designed for arrangement thereof within the interior for the directional emission of light during operation through the light exit region toward the outside. Furthermore, the lighting arrangement comprises at least one busbar designed for the supply of the light providing device in the interior of the channel, wherein the light providing device is electrically coupleable to the busbar. The light providing device, for the holding thereof, is coupleable to the channel and is freely positionable at least within a region of the interior. A construction kit for such a lighting arrangement and a method for constructing such a lighting arrangement are furthermore disclosed.

Abstract: A smart tag is attached on a vehicle body in a vehicle manufacturing process. The smart tag includes a position measurement transmitter for transmitting signals for measuring position of a vehicle body, a wireless communication transceiver for performing wireless communication, a position sensor for sensing data for calculating a position of the vehicle body, a memory for storing data including vehicle body information, a controller for controlling operation of the smart tag, and a battery for supplying electric power to components of the smart tag.

Abstract: A light fixture has a linear LED array and a lens having a first surface and a second surface that covers the LED array. The light being received at the first surface and emitted from the second surface. The lens includes a plurality of light shaping features on at least one of the first surface and the second surface where the plurality of light shaping features are configured to generate a directional light distribution pattern. The light pattern may be symmetric or asymmetric relative to a longitudinal axis of the light fixture. The lens may comprise a plurality of sections where the plurality of sections made of material having different optical properties.

Abstract: A method produces non-contact dielectric bridges using a transfer machine for positioning an integrated circuit on a conductive circuit and a laser for ensuring the connection of the contacts thereof. The contacts of the integrated circuit that have been registered by a transfer machine in relation to the contacts of the conductive circuit, arranged on a continuous support made of heat- and radiation-resistant polyimide and held under pressure by the device, are welded together using a laser beam. The laser is positioned beneath the continuous support and built into the transfer machine. When the laser is used, the continuous support is immobilized by a stop and go device. The method is designed to increase the productivity of systems used to produce RFID tags, as a result of low investment costs and much faster speeds of connection of the contacts of the integrated circuit and the conductive circuit. The method allows the use of non-contact identification tags to become widespread over many professions.