Abstract: Imaging devices, systems, and methods for capturing image data for an object appearing in a field of view (FOV) are described herein. An example device includes: an imaging assembly; an aiming assembly; and a computer-readable media storing machine readable instructions that cause the imaging device to: (i) initiate a first aiming state responsive to receiving an indication of a trigger event; (ii) capture the image data of the object appearing in the FOV while operating in the first aiming state; (iii) transition from the first aiming state to a second aiming state responsive to a successful decode event associated with the indicia, wherein the light source is to emit light in the second aiming state such that an observable appearance is different in the second aiming state than in the first aiming state; and (iv) otherwise refrain from transitioning from the first aiming state to the second aiming state.

Abstract: Methods, systems, and devices for locating and tracking an object in a machine vision field of view based upon an affixed indicium visible in an indicium decoding field of view are provided herein. An example method for object tracking includes receiving, from a first optical imaging assembly having a first field of view (FOV), a first image captured over the first FOV, receiving, from a second optical imaging assembly having a second FOV, a second image captured over the second FOV, decoding an indicium in the first image, detecting at least a portion of the indicium in the second image, and identifying an object of interest associated with the indicium in the second image based upon a location of the at least the portion of the indicium in the second image.

Abstract: Imaging devices, systems, and methods for capturing image data for an object appearing in a field of view (FOV) are described herein. An example device includes: an imaging assembly; an aiming assembly; and a computer-readable media storing machine readable instructions that cause the imaging device to: (i) initiate a first aiming state responsive to receiving an indication of a trigger event; (ii) capture the image data of the object appearing in the FOV while operating in the first aiming state; (iii) transition from the first aiming state to a second aiming state responsive to a successful decode event associated with the indicia, wherein the light source is to emit light in the second aiming state such that an observable appearance is different in the second aiming state than in the first aiming state; and (iv) otherwise refrain from transitioning from the first aiming state to the second aiming state.

Abstract: Provided are systems and methods for managing patient care. Managing patient care involves obtaining one or more electronic patient health datasets related to a plurality of patients; generating a plurality of patient profiles from the one or more electronic patient health datasets, where a first patient profile of the plurality of patient profiles is generated by: analyzing the identified data to identify data associated with a first patient; analyzing data associated with the first patient to determine data associated with patient features and determining a severity score using the identified data; analyzing the data associated with the first patient to identify data associated with medical events of the first patient and determining an urgency score using the identified data; and displaying ordered representations of profiles of the plurality of patient profiles, wherein the representations are ordered based at least in part on the severity score of the respective profile.

Abstract: Provided are systems and methods for managing patient care. Managing patient care involves obtaining one or more electronic patient health datasets related to a plurality of patients; generating a plurality of patient profiles from the one or more electronic patient health datasets, where a first patient profile of the plurality of patient profiles is generated by: analyzing the identified data to identify data associated with a first patient; analyzing data associated with the first patient to determine data associated with patient features and determining a severity score using the identified data; analyzing the data associated with the first patient to identify data associated with medical events of the first patient and determining an urgency score using the identified data; and displaying ordered representations of profiles of the plurality of patient profiles, wherein the representations are ordered based at least in part on the severity score of the respective profile.

Abstract: Systems and methods for detecting potential shrink events via RFID technology are provided. The systems include a point of sale (POS) system that includes an optical scanner, an RFID transceiver arrangement, a user interface and a controller. The controller is configured to perform example methods disclosed herein. For example, the controller may detect that the optical scanner has decoded a barcode, trigger the RFID transceiver arrangement to write a data string to an RFID tag located within the object scanning area, conduct a detection operation to detect the RFID tag with the data string in the bagging area. Responsive to detecting the RFID tag with the data string, the method involves the user interface performing a first operation. Responsive to not detecting the RFID tag with the data string, the method involves the user interface performing a second operation.

Abstract: Systems and methods for detecting potential shrink events via RFID technology are provided. The systems include a point of sale (POS) system that includes an optical scanner, an RFID transceiver arrangement, a user interface and a controller. The controller is configured to perform example methods disclosed herein. For example, the controller may detect that the optical scanner has decoded a barcode, trigger the RFID transceiver arrangement to write a data string to an RFID tag located within the object scanning area, conduct a detection operation to detect the RFID tag with the data string in the bagging area. Responsive to detecting the RFID tag with the data string, the method involves the user interface performing a first operation. Responsive to not detecting the RFID tag with the data string, the method involves the user interface performing a second operation.

Abstract: Systems and methods for detecting potential shrink events via RFID technology are provided. The systems include a point of sale (POS) system that includes an optical scanner, an RFID transceiver arrangement, a user interface and a controller. The controller is configured to perform example methods disclosed herein. For example, the controller may detect that the optical scanner has decoded a barcode, trigger the RFID transceiver arrangement to write a data string to an RFID tag located within the object scanning area, conduct a detection operation to detect the RFID tag with the data string in the bagging area. Responsive to detecting the RFID tag with the data string, the method involves the user interface performing a first operation. Responsive to not detecting the RFID tag with the data string, the method involves the user interface performing a second operation.

Abstract: An imaging system with in-field image quality testing and reporting features, includes a housing, and a solid-state imager having an array of image sensors supported by the housing for capturing return light from a target located in a range of working distances from the housing in an image capture mode of operation, and for capturing return light from a test pattern positioned at a predetermined position in the range of working distances in a test mode of operation different from the image capture mode. An electrical signal indicative of the captured return light is generated in each mode. A memory is supported by the housing for storing a test program for testing image quality.

Abstract: An imaging reader for, and a method of, processing a plurality of data, such as one or more symbols having the same or different symbologies, a receipt acknowledgment, and an alphanumeric address arranged at spaced-apart locations on a target, such as at parcel delivery label, employ a solid-state imager having an array of image sensors for capturing return light from the data on the target over a field of view, an actuator for actuating the images: to capture the return light from the data on the target in a single actuation, and a controller automatically configured for detecting all the data and the spaced-apart locations at which the data is arranged over the field of view, and for processing the return light captured by the imager from all the data only when all the data is of a predetermined type and is at predetermined locations on the target, in response to the single actuation.

Abstract: An imaging system with in-field image quality testing and reporting features, includes a housing, and a solid-state imager having an array of image sensors supported by the housing for capturing return light from a target located in a range of working distances from the housing in an image capture mode of operation, and for capturing return light from a test pattern positioned at a predetermined position in the range of working distances in a test mode of operation different from the image capture mode. An electrical signal indicative of the captured return light is generated in each mode. A memory is supported by the housing for storing a test program for testing image quality.

Abstract: A system for sensor network applications comprising a microcontroller for handling irregular events, at least one hardware accelerator for handling regular events, an event processor for interrupt handling and power management in the system, and a system bus. The microcontroller, hardware accelerator, and event processor each are connected to the system bus. The event processor gates power to the microcontroller to provide power to the microcontroller only for processing related to irregular events requiring processing by the microcontroller. The event processor further may gate power to the hardware accelerator. The system may further include a message processor and a plurality of sensors.

Abstract: A universal interface system for use with a data acquisition system including a data acquisition device such as a bar code scanner or scanner integrated terminal for providing digital data signals indicative of acquired data for transmission to a host device such as a computer, and a host device having host-specific input/output data format requirements. The universal interface system comprises universal data exchange means located in the data acquisition device for providing digital data signals in a universal data exchange format independent of the data format requirements of the host device; and a host interface cable coupled to the data acquisition device and to said host device, for transmitting acquired digital data from the data acquisition device to the host device, the interface cable comprising means for translating digital data from the universal data exchange format to the host-specific input/output data format requirements.

Abstract: A universal interface system for use with a data acquisition system including a data acquisition device such as a bar code scanner or scanner integrated terminal for providing digital data signals indicative of acquired data for transmission to a host device such as a computer, and a host device having host-specific input/output data format requirements. The universal interface system comprises universal data exchange means located in the data acquisition device for providing digital data signals in a universal data exchange format independent of the data format requirements of the host device; and a host interface cable coupled to the data acquisition device and to said host device, for transmitting acquired digital data from the data acquisition device to the host device, the interface cable comprising means for translating digital data from the universal data exchange format to the host-specific input/output data format requirements.