Abstract: An optical indicia reading terminal can comprise a microprocessor, a memory, an image sensor integrated circuit including a two-dimensional image sensor, and a hand held housing encapsulating the two-dimensional image sensor. The image sensor integrated circuit can be configured to output a plurality of digital signals, each digital signal being representative of light incident on at least one pixel of the two-dimensional image sensor. The optical indicia reading terminal can be configured to store in the memory a frame of monochrome image data by selectively acquiring a plurality of luminance signals from the plurality of digital signals. Each luminance signal of the plurality of luminance signals can be representative of luminance of light incident on at least one pixel of the two-dimensional image sensor. The optical indicia reading terminal can be configured to process the frame of image data for decoding decodable indicia.

Abstract: A system and method of adjusting the transmission strength emitted by an integrated RFID reading device by an EIR terminal. The EIR terminal scans a signal of decodable indicia, locates the decodable indicia within the signal, decodes the decodable indicia into a decoded message, which is an identifier for said physical object. The EIR terminal then makes contact with the physical object and stores the location of this contact as a point of origin and then, moves through three dimensional and receives values from its motion sensing device representing the location of said EIR terminal in three dimensional space relative to the point of origin. Then, the EIR terminal determines the distance of the RFID reading device from the point of origin and adjusts the power level of said RFID reading device relative to this distance.

Abstract: A method of mapping the location of at least one object in three dimensional space, relative to an initial point in three dimensional space by an EIR terminal which contains a microprocessor, memory, a scanning device, a motion sensing device, and a communication interface. The method includes scanning a signal of decodable indicia located at a pre-defined area of a physical object, locating the decodable indicia within this signal, decoding the decodable indicia into a decoded message. The decoded message is an identifier for said physical object, which is then displayed. After receiving an interface command, the EIR terminal is placed in mechanical contact with the pre-defined area of the physical object and a first spatial position is stored as a point of origin in the EIR terminal.

Abstract: An optical indicia reading terminal configured to capture and process an image of decodable indicia can comprise a first image sensor and a second image sensor having overlapping fields of view. The optical indicia reading terminal can further comprise at least one analog-to-digital converter configured to convert analog signals read out of the two image sensors into first and second digital signals, respectively. The optical indicia reading terminal can further comprise a hand held housing encapsulating the two image sensors. The optical indicia reading terminal can further comprise a microprocessor configured to output a decoded message data corresponding to the decodable indicia by processing at least one of the two digital signals.

Abstract: A focus module containing a boundary element and a focus element. The focus element includes a fluid and a deformable membrane, with the fluid being entrapped between the boundary element and the deformable membrane. The focus module also includes a pressure element, which is capable of deforming the focus element by pressing on the deformable membrane in the direction of the boundary element.

Abstract: There is provided in one embodiment an indicia reading apparatus having an integrated circuit that includes an image sensor array. The integrated circuit can output a pixel value output to represent an average of light incident on an adjacent set of pixels of the image sensor array.