Abstract: Methods, systems, and computer-readable media for linking multiple data entities. The method collects a snapshot of data from one or more data sources and converts it into a canonical representation of records expressing relationships between data elements in the records. The method next cleans the records to generate output data of entities by grouping chunks of records using a machine learning model. The method next ingests the output data of entities to generate a versioned data store of the entities and optimizes versioned data store for real-time data lookup. The method then receives a request for data pertaining to a real-world entity and presenting relevant data from the versioned data store of entities.

Abstract: An imaging reader has a two-dimensional array of image sensors for capturing return light from a two-dimensional symbol over a field of view as pixel data to be stored in internal random access memory (RAM) of a controller even though the internal RAM has less storage bytes than the number of sensors. The controller determines a size and a location of the symbol in the field of view, maps and subdivides the symbol into a plurality of image capture zones based on the symbol size and location, sequentially captures the return light from each zone, sequentially stores the pixel data from each zone into the internal RAM, sequentially digitizes the stored pixel data from each zone as digitized data, and decodes the digitized data from all the zones.

Abstract: An apparatus for, and method of, imaging a target presented to a bi-optical, dual window, point-of-transaction workstation utilizes multiple imaging modules individually mounted for individual installation on, and individual removal from, a motherboard. Each module includes a solid-state imager having an array of light-sensitive sensors for capturing return light from the target over a field of view; a local controller externally of the imager for controlling the imager, for storing image data corresponding to the captured return light, and for interrogating the stored image data; and a daughterboard on which the imager and the local controller are both commonly mounted.

Abstract: An arrangement for, and a method of, acquiring a monochrome image of a target, employ a solid-state imager for capturing return light from the target over a field of view, and for generating an output image data stream having image components arranged in a serial format at a clock frequency, a preprogrammed microprocessor operatively connected to the imager for serially receiving, sampling and processing the image components at a sampling frequency to generate the monochrome image of the target, and a clock frequency adjustment circuit operatively connected to the imager and the microprocessor for adjusting the clock frequency to enable the microprocessor to receive, sample and process the image components and generate the monochrome image.

Abstract: An imaging reader has a two-dimensional array of image sensors for capturing return light from a two-dimensional symbol over a field of view as pixel data to be stored in internal random access memory (RAM) of a controller even though the internal RAM has less storage bytes than the number of sensors. The controller determines a size and a location of the symbol in the field of view, maps and subdivides the symbol into a plurality of image capture zones based on the symbol size and location, sequentially captures the return light from each zone, sequentially stores the pixel data from each zone into the internal RAM, sequentially digitizes the stored pixel data from each zone as digitized data, and decodes the digitized data from all the zones.

Abstract: A data capture terminal for, and a method of, automatically capturing data from targets located within a range of working distances from the terminal, employ a controller for automatically controlling a set of focal parameters of an imaging assembly, for storing one of the focal parameters of the imaging assembly upon a successful data capture from a first target, and for automatically selecting a subset of the focal parameters determined from the stored focal parameter to capture data from a second target. The subset is smaller than the set of the focal parameters and corresponds to a restricted zone within the range of working distances to enhance data capture performance of the terminal.

Abstract: An optical code reading system includes an imaging engine having an illuminating assembly for illuminating a potential target area; an imaging assembly including an imaging sensor for acquiring a native image of a potential target area; and circuitry for converting the native image of a potential target area to a data signal and outputting the data signal. The data signal includes potential target area data indicative of low and high resolution representations of the native image; and at least one processor that includes means for receiving the data signal and separating the potential target area data included within the data signal into at least first and second groups of pixels indicative of the low and high resolution representations. The processor may also receive intermediate resolution representations. A corresponding imaging engine and processors capable of implementing the method of separating the high, low and intermediate resolution representations are also disclosed.

Abstract: A data capture terminal for, and a method of, automatically capturing data from targets located within a range of working distances from the terminal, employ a controller for automatically controlling a set of focal parameters of an imaging assembly, for storing one of the focal parameters of the imaging assembly upon a successful data capture from a first target, and for automatically selecting a subset of the focal parameters determined from the stored focal parameter to capture data from a second target. The subset is smaller than the set of the focal parameters and corresponds to a restricted zone within the range of working distances to enhance data capture performance of the terminal.

Abstract: An imager in an imaging reader captures light from a target, generates image data from the captured light, and generates a pixel clock signal having a pixel clock frequency in synchronism with the image data. A controller is connected via an electrical conductor to the imager, and controls the imager to transfer the image data, receives the image data, and processes the image data. A circuit suppresses electromagnetic radiation generated by the conductor during the image data transfer, and includes a spread spectrum modulator for modulating the pixel clock signal to generate a variable spread spectrum signal having a spread spectrum frequency that periodically varies above and below the pixel clock frequency, and a buffer having a plurality of registers for receiving and temporarily storing the image data, and for varying as a function of the spread spectrum frequency how much of the image data is being temporarily stored.

Abstract: An arrangement for, and a method of, acquiring a monochrome image of a target, employ a solid-state imager for capturing return light from the target over a field of view, and for generating an output image data stream having image components arranged in a serial format at a clock frequency, a preprogrammed microprocessor operatively connected to the imager for serially receiving, sampling and processing the image components at a sampling frequency to generate the monochrome image of the target, and a clock frequency adjustment circuit operatively connected to the imager and the microprocessor for adjusting the clock frequency to enable the microprocessor to receive, sample and process the image components and generate the monochrome image.

Abstract: An imaging assembly in an imaging reader for electro-optically reading indicia includes a solid-state imager having an array of image sensors, and a focus control element, such as a liquid imaging lens, having a variable transfer function characteristics for capturing, optically modifying and directing return light from the indicia over a field of view onto the imager for processing into an electrical signal indicative of the indicia during a reading mode of operation; and a controller for controlling the imaging assembly to optically modify the return light in accordance with a known transfer function stored in a memory accessible to the controller during a calibration mode of operation prior to the reading mode.

Abstract: An imaging module is supported by a housing of a reader for electro-optically reading indicia. The imaging module includes a solid-state imager having an array of image sensors for capturing return light from the indicia during reading. A laser scanning module is also supported by the housing and includes a scanner for scanning at least one of a laser beam from a laser and a field of view of a light detector in a scan pattern across the indicia during reading. A controller is operatively connected to the modules, and is operative for preventing reading interference between the modules during reading.

Abstract: An imaging module is supported by a housing of a reader for electro-optically reading indicia. The imaging module includes a solid-state imager having an array of image sensors for capturing return light from the indicia during reading. A laser scanning module is also supported by the housing and includes a scanner for scanning at least one of a laser beam from a laser and a field of view of a light detector in a scan pattern across the indicia during reading. A controller is operatively connected to the modules, and is operative for preventing reading interference between the modules during reading.

Abstract: Described is a multi-sensor image capture device. The device comprises a first imaging sensor, a second imaging sensor and a light transfer arrangement receiving illumination reflected from an object and aiming the illumination at at least one of the first and second imaging sensors. The first imaging sensor generates first image data as a function of the illumination and the second imaging sensor generates second image data as a function of the illumination.

Abstract: A reader for electro-optically reading indicia, includes a solid-state imager including an array of image sensors for capturing return light from the indicia during reading, and a light source for generating and directing high intensity illumination light to the indicia with concomitant generation of excess heat. Thermal management procedures for dissipating the excess heat are performed to improve reader performance.

Abstract: An imager in an imaging reader captures light from a target, generates image data from the captured light, and generates a pixel clock signal having a pixel clock frequency in synchronism with the image data. A controller is connected via an electrical conductor to the imager, and controls the imager to transfer the image data, receives the image data, and processes the image data. A circuit suppresses electromagnetic radiation generated by the conductor during the image data transfer, and includes a spread spectrum modulator for modulating the pixel clock signal to generate a variable spread spectrum signal having a spread spectrum frequency that periodically varies above and below the pixel clock frequency, and a buffer having a plurality of registers for receiving and temporarily storing the image data, and for varying as a function of the spread spectrum frequency how much of the image data is being temporarily stored.

Abstract: An imaging module is supported by a housing of a reader for electro-optically reading indicia. The imaging module includes a solid-state imager having an array of image sensors for capturing return light from the indicia during reading. A laser scanning( module is also supported by the housing and includes a scanner for scanning at least one of a laser beam from a laser and a field of view of a light detector in a scan pattern across the indicia during reading. A controller is operatively connected to the modules, and is operative for distinguishing between types of the indicia, and for enabling the laser scanning module to read one-dimensional symbols by default, and for automatically enabling the imaging module to read two-dimensional symbols upon detection that a symbol being read is a two-dimensional symbol.

Abstract: A plurality of solid-state imagers is mounted in a reader, such as a bioptical, dual window, point-of-transaction workstation, for capturing illumination light returning along different fields of view from indicia. A controller controllably activates the imagers over respective exposure time periods during which the indicia are illuminated to produce electrical signals indicative of the indicia being read, processes the electrical signals to read the indicia, and controls the exposure time periods to be nonconcurrent to prevent interference among the imagers.

Abstract: An illuminator illuminates a symbol with a low level of illumination in a detection mode of operation to enable an imager to detect the symbol in a working range and in a field of view of the imager in an imaging reader, and also illuminates the symbol with a high level of illumination in a reading mode of operation to enable the imager to read the symbol.

Abstract: A device comprises a memory and a processor. The memory stores an image. The image includes a plurality of areas. The image is captured using at least one of an auto-exposure technology and an auto-focus technology. The processor is coupled to the memory and selects at least one of the plurality of areas as a function of predetermined data. The data is related to the at least one of the auto-exposure technology and the auto-focus technology. The processor locates a symbol in the at least one selected areas.