Abstract:
An automatic digital video image capture and processing system supporting image-processing based code symbol reading during a pass-through mode of system operation at a retail point of sale (POS) station. The system comprises an automatic object direction detection subsystem, disposed in its housing, as well as an illumination subsystem, an image formation and detection subsystem, an automatic illumination control subsystem, a digital image capturing and buffering subsystem, a digital image processing subsystem, and a system control subsystem. During system operation, the automatic object direction detection subsystem automatically detects the presence and direction of movement of the object in the field of view (FOV), and in response thereto, generates a first signal indicating a triggering event and a second signal indicating the direction of movement of the object with respect to the FOV. The system control subsystem is responsive to the first and second control signals, and controls and/or coordinates the operation of the subsystems above system so as to support image-processing based code symbol reading during the pass-through mode of system operation at the retail POS station.
Abstract:
Novel POS-based bar code symbol reading systems are disclosed having an integrated customer-kiosk terminal. Also disclosed are novel POS-Based Bar Code Reading Cash Register Systems having Integrated Internet-Enabled Customer-Kiosk Terminals.
Abstract:
An digital image capturing and processing system comprising a plurality of coplanar illumination and imaging stations projecting a complex of coplanar illumination and imaging planes into a 3D imaging volume so as to support pass-through and presentation modes of digital imaging at a point of sale (POS) environment. Each station includes an illumination subsystem having a linear illumination array including a plurality of light emitting devices for producing a planar illumination beam (PLIB), and an image formation and detection subsystem including a linear image sensing array having optics providing a field of view (FOV) on the linear image detection array, and extending substantially along the PLIB. A plurality of coplanar illumination and imaging planes (PLIB/FOVs) are formed and projected through the imaging window and into the 3D imaging volume, for capturing linear (1D) digital images of objects moving through the 3D imaging volume. Each station includes an automatic illumination control subsystem for controlling the production of illumination by the illumination subsystem into the 3D imaging volume, as an object is detected moving within the 3D imaging volume.
Abstract:
A digital image capturing and processing system comprising a plurality of coplanar illumination and imaging stations for producing a plurality of coplanar linear illumination and imaging planes which intersect within a 3D imaging volume defined relative to an imaging window. Each station includes an array of planar illumination modules (PLIMs) for producing at least one substantially planar illumination beam (PLIB), and a linear image detection array having a field of view (FOV) on the linear image detection array and extending in substantially the same plane as the PLIB, to provide a coplanar illumination and imaging plane (PLIB/FOV). The PLIB/FOV is projected through the 3D imaging volume, for capturing linear (1D) digital images of an object passing therethrough, for subsequent processing and recognition of information graphically represented in the linear digital images. Each station also employs a local control subsystem for controlling at least one illumination parameter associated with the production of the PLIB, in response to the motion and velocity of objects detected within the 3D imaging volume during system operation. By virtue of the present invention, it is possible to optimally illuminate objects based on the velocity at which such objects pass through the 3D imaging volume, at point-of-sale (POS) stations and like retail environments. Such illumination control ensures the capture of high quality digital images of objects, resulting in improved image processing.
Abstract:
An omni-directional digital image capturing and processing system for use in a POS environment, comprising a system housing having horizontal and vertical housing sections. The horizontal housing section has a horizontal imaging window, and contains (ii) a first plurality of coplanar illumination and imaging stations, for generating and projecting a first group of coplanar illumination and imaging planes through the horizontal imaging window, and (ii) at least one area-type illumination and imaging station disposed in the horizontal housing section for generating and projecting an area-type illumination and imaging zone through the horizontal imaging window. The vertical housing section has a vertical imaging window, and contains a second plurality of coplanar illumination and imaging stations for generating and projecting second group of coplanar illumination and imaging planes through the vertical imaging window, which intersect with the first group of coplanar illumination and imaging planes and the area-type illumination and imaging zone, within a 3D imaging volume definable relative to the horizontal and vertical imaging windows, for omni-directional digital imaging of the object passing through the 3D imaging volume. Digital linear images of the object are generated as the object intersects the coplanar illumination and imaging planes, and digital area-type digital images of the object are generated as the object intersects with the area-type illumination and imaging zone, within the 3D imaging volume during system operation.
Abstract:
A method of and system for identifying a consumer product in a retail store environment when a bar code symbol on a product is not readable or has been removed from the product's packaging. The system comprises a database system, and a digital image capturing and processing system installed in the retail environment and in data communication with the database system. The digital image capturing and processing system is capable of capturing one or more digital images for each consumer product sold in the retail store environment, and storing the digital images in the database subsystem, along with product identifying information for each consumer product. When the imaged bar code symbol happens to be unreadable, or when the bar code symbol label happens to have fallen off or have been removed from the packaging, then one or more digital images of the consumer product are compared with digital images stored in the database subsystem to identify the consumer product graphically represented in the digital images.
Abstract:
An automatic omni-directional bar code symbol reading system for use in a POS environment. The system comprises a system housing having an light transmission window. A plurality of linear-type bar code symbol reading stations are disposed in the system housing, for generating and projecting a complex of linear illumination planes through the light transmission window and into a 3D volume definable relative to the system housing. At least one area-type bar code reading station is disposed in the system housing, for generating and projecting an area illumination beam through the light transmission window and into the 3D volume. The complex of linear illumination planes and the area illumination beam enable omni-directional reading of bar code symbols on an object passing through the 3D volume, and the generation symbol character data representative of the read bar code symbol. An object detection subsystem automatically detects the object passing through the 3D volume, and generates data representative of the detected object within the 3D volume. A control subsystem controls operations within the linear-type and area-type bar code symbol reading stations using control data derived from the data generated by the object detection subsystem.
Abstract:
A method of and system for returning a consumer product in a retail environment and preventing or reducing employee theft of returned merchandise in retail store environments and providing greater accountability for returned merchandise in retail store environments. The method comprises providing an image capturing and processing system at the retail environment, including a system housing having an imaging window and generating and projecting a field of view through the imaging window, and into a 3D imaging volume definable relative to the imaging window. The digital image capturing and processing system produces one or more digital images of objects passing within the 3D imaging volume. Identification (ID) data for the consumer returning the purchased goods is entered into a host system connected to the digital image capturing and processing system, as well as identification data for the employee to whom the goods are being returned. The digital image capturing engine captures one or more digital images of returned products and these digital images are provided to the host system. The host system generates an electronic document containing identification data for the customer and employee along with the one or more digital images of the returned product or merchandise. The electronic document is then transmitted from the host system to a database server associated with the retail store environment, for storage and subsequent processing. By virtue of the present invention, it is now possible to prevent or reduce employee theft of returned merchandise in retail store environments and provide greater accountability for returned merchandise in such store environments.
Abstract:
An omni-directional digital image capturing and processing system comprising a plurality of coplanar illumination and imaging stations for producing a plurality of coplanar linear illumination and imaging planes which intersect within a 3D imaging volume. Each coplanar illumination and imaging station includes a linear image detection array, a linear illumination array, and an object motion and velocity detection subsystem for automatically detecting the motion and velocity of an object that passes through at least a portion of one coplanar linear illumination and imaging plane, and automatically adjusting one or more parameters relating to the exposure and/or illumination control within the coplanar illumination and imaging station. By virtue of the present invention, it is possible to capture and process high quality digital images of objects passed through 3D imaging volumes, at point-of-sale (POS) retail stations and like environments.
Abstract:
A digital image capturing and processing system comprising a plurality of coplanar illumination and imaging stations for producing a plurality of coplanar linear illumination and imaging planes which intersect within a 3D imaging volume defined relative to an imaging window. Each station includes an array of planar illumination modules (PLIMs) for producing at least one substantially planar illumination beam (PLIB), and a linear image detection array having a field of view (FOV) on the linear image detection array and extending in substantially the same plane as the PLIB, to provide a coplanar illumination and imaging plane (PLIB/FOV). The PLIB/FOV is projected through the 3D imaging volume, for capturing linear (1D) digital images of an object passing therethrough, for subsequent processing and recognition of information graphically represented in the linear digital images. The system includes an automatic object motion detection subsystem for automatically determining when and where an object is being moved through the 3D imaging volume, and a control subsystem for selectively activating illumination sources in only those PLIMs in particular coplanar illumination and imaging stations when an object is being moved within the FOV thereof. By virtue of the present invention, it is possible to minimize the illumination of human beings who might be present along the lines of projected coplanar illumination and imaging planes during the operation of system, at point-of-sale (POS) stations and like retail environments.