Hand Held Products

A method provided herein includes receiving a software application integration instruction corresponding to a software application. In some embodiments, the method includes, in response to receiving the software application integration instruction, activating a first software application integration bot. In some embodiments, the first software application integration bot is configured to generate, using a software application integration model, a software application integration command. In some embodiments, the first software application integration bot is configured to transmit the software application integration command to a second software application integration bot. In some embodiments, the first software application integration bot is configured to receive a software application integration response from the second software application integration bot. In some embodiments, the first software application integration bot is configured to execute a software application integration program based on the software application integration response. In some embodiments, the method includes providing a software application integration result.

A method provided herein includes identifying, by a first computing device, a location recognition trigger. In some embodiments, the method includes, in response to identifying the location recognition trigger, capturing one or more location indicative features using one or more sensors of the first computing device. In some embodiments, the one or more location indicative features comprise an image based location indicative feature, an audio based location indicative feature, and a device based location indicative feature corresponding to a second computing device. In some embodiments, the method includes generating, using at least one of the one or more location indicative features and a location determination model, a location recognition result. In some embodiments, the method includes initiating performance of one or more location related responsive actions based on the location recognition result.

A method provided herein includes accessing, using a monitoring engine, a computing file provided to a second computing device via a computing file exchange platform. In some embodiments, the method includes identifying, using the computing file and a computing file content model, a content defect associated with the computing file. In some embodiments, the method includes generating, using the content defect and the computing file content model, a responsive action program. In some embodiments, the method includes generating a responsive action program link interface element. In some embodiments, the responsive action program link interface element comprises a responsive action program link representation corresponding to the responsive action program. In some embodiments, the method includes causing the responsive action program link interface element to be rendered to an interface associated with the computing file exchange platform.

A system including at least one data collection device, each connected to a corresponding data terminal via a primary communication channel; and a central connectivity point connected to each data collection device via a wireless secondary communication channel so as to communicate with the at least one data collection device without disrupting communication between the at least data collection device and the corresponding data terminal via the primary communication channel and to permit remote administration of each data collection device.

A system and method for power optimized RFID scanning and RFID tag localization is disclosed. The system comprises at least one antenna coupled to a radio frequency identification (RFID) reader configured to read at least one RFID tag associated with at least one package. Further, at least one radar sensor is communicatively coupled to the RFID reader. The at least one radar sensor is configured to detect a position of the at least one RFID tag associated with the at least one package. Further, the RFID reader is configured to select at least one antenna based on the detected position of the at least one RFID tag. The RFID reader is further configured to direct the at least one antenna towards the detected position of the at least one RFID tag.

Embodiments of the present disclosure include near co-axial polarized illuminator apparatuses and uses thereof. The near co-axial polarized illuminator is internally positionable in near co-axial alignment with one or more imager(s) utilized to capture a representation of a field of view illuminated by the near co-axial polarized illuminator. Embodiments include small form factor reader(s) that utilize a near co-axial polarized illuminator to improve illumination of a field of view captured via multiple imagers for detecting and/or decoding machine-readable symbologies, such as barcodes. Some embodiments include a DPM channel image sensor, a standard range channel image sensor, a near co-axial polarizer light source positioned adjacent to the DPM channel image sensor and adjacent to the standard range channel image sensor, a near co-axial polarizer aligned with the near co-axial polarizer light source, and an analyzer aligned with the DPM channel image sensor and/or the standard range channel image sensor.

A method for decoding data packet comprising: retrieving, by a processor (1702), header data (1506) and encoded data (1504) from a data packet (1500) received from a storage media (116,118); parsing, by the processor (1702), the encoded data (1504) to categorize a plurality of binary bits in the encoded data into a plurality of encoded data portions based on at least the header data (1506), wherein parsing the encoded data comprises determining semantic information associated with the encoded data based on the header data, wherein the encoded data is categorized into the plurality of encoded data portions based on the semantic information; determining, by the processor (1702), a plurality of decoding schemes to decode the plurality of encoded data portions based on the header data; and decoding, by the processor(1702), at least one of the plurality of encoded data portions using the plurality of decoding schemes to generate at least one of a first data portion and a second data portion, wherein a first encoded data portion of the plurality of encoded data portions is decoded using a first decoding scheme of the plurality of decoding schemes and a second encoded data portion of the plurality of encoded data portions is decoded using a second decoding scheme of the plurality of decoding schemes different from the first decoding scheme.

Systems, apparatuses, methods, and computer program products are provided herein. The method comprises: identifying, by one or more processors, image data, wherein the image data is representative of an image comprising one or more barcodes; generating, by a neural processing unit, region of interest image data by applying the image data to a region of interest machine learning model, wherein the region of interest image data is representative of one or more regions of interest in the image, wherein each of the one or more regions of interest are associated with at least one corresponding barcode of the one or more barcodes; generating, by the one or more processors, decoded barcode data by applying the region of interest image data to a first decoder, wherein the first decoder is a region of interest fast linear decoder or a region of interest integrated decoder; and initiating, by the one or more processors, performance of one or more actions based at least in part on the decoded barcode data.

Various embodiments described herein provide multi-projector (i.e., two or more) imaging apparatuses utilizing integrated illumination-aimer optics. Embodiments of the present disclosure minimize irreparable component offset to improve overall accuracy associated with the functioning of the apparatuses. Additionally, the integrated illumination-aimer optics enables embodiments disclosed herein to be provided in a significantly smaller form factor than conventional multi-projector imaging apparatuses. An example apparatus includes a near-field imaging lens and a far-field imaging lens, an integrated illumination-aimer optics positioned between the near-field imaging lens and the far-field imaging lens, a near-field illuminator source and a far-field illuminator source positioned for projecting via the integrated illumination-aimer optics, a near-field imaging sensor associated with the near-field imaging lens, a far-field imaging sensor associated with the far-field imaging lens, and an apparatus chassis to align the various components for operation.

An example variable focusing lens apparatus, as well as example methods for assembling and operating the example variable focusing lens apparatus, is provided. The example variable focusing lens apparatus includes a rear pair of coil elements powered by a rear coil current, a front pair of coil elements positioned in front of the rear pair of coil elements and powered by a front coil current, and a barrel lens assembly comprising a top magnetic element secured on a top portion of the barrel lens assembly and a bottom magnetic element secured on a bottom portion of the barrel lens assembly. In some examples, the barrel lens assembly is moveable to a plurality of barrel lens assembly positions corresponding to a plurality of current differential ratios associated with the rear coil current and the front coil current.