Abstract: A mobile device is described. The mobile device includes an electronic compass that generates compass data corresponding to an orientation of the mobile device relative to true north. A global positioning system (GPS) module receives a GPS signal from multiple satellites. The GPS module determines a heading direction of a vehicle transporting the mobile device relative to true north based on the position data when the vehicle is moving above a threshold velocity. A motion sensor generates motion data corresponding to a motion of the mobile device when the mobile device is moved. A processor adjusts the heading direction of the vehicle relative to true north based on the compass data when the vehicle is moving below the threshold velocity.

Abstract: Targets to be read by image capture are illuminated and imaged over an extended range of working distances. A near imager captures return light over a relatively wide imaging field of view from a target located in a close-in region of the range. A far imager captures return light over a relatively narrow imaging field of view from a target located in a far-out region of the range. A single illuminating light assembly is shared by both the near and far imagers. An illumination light source emits illumination light, and an illuminating lens assembly optically modifies the emitted illumination light, and simultaneously illuminates a wide illumination field to illuminate the target located in the close-in region of the range, and a narrow illumination field to illuminate the target located in the far-out region of the range.

Abstract: A glove electronic device includes a plurality of peripherals, each of which is affixed to an adhesive cover and attachable to a location in at least one of finger portions, a wrist portion and a hand portion of the glove electronic device. Configuration of the plurality of peripherals on the glove electronic device is adaptable during use of the glove electronic device. The device also includes a transceiver for sending information captured by one or more of the plurality of peripherals and for transmitting information to one or more of the plurality of peripherals. The device further includes a processor configured to operate one or more of the plurality of peripherals responsive to a movement associated with the glove electronic device or body signals being sensed from sensors attached or worn on the body.

Abstract: A method and apparatus for activating a trigger mechanism at a data capture device having a touch display, and a data capture module is provided. In operation, a first region associated with a first application and an input region is provided on the touch display. An input is received at the device, including at least a touch sensor input from the touch display. Based on the input, an obtained input pattern may be identified. The identified input pattern may include at least one of a spatial pattern, a temporal pattern, a touch size and a hard-tap. When the identifying is successful, either an input may be provided to the first application or the trigger mechanism may be activated to initiate a data capture at the data capture module. Alternatively, when the identifying is successful, an operation associated with the first application may be performed or a mode of operation of the data capture device may be changed to a second mode.

Abstract: A method and apparatus for performing a variable data capture process at a data capture device comprising a data capture module and a trigger mechanism is provided. In operation, the data capture device detects an initial activation of the trigger mechanism. In response to the activation, data capture is initiated at the data capture module. A continued activation of the trigger mechanism subsequent to the initial activation is also detected. Following the detection of the continued activation of the trigger mechanism, the device identifies an obtained gesture and performs a data capture operation based on the identified gesture.

Abstract: An RFID reader is provided that includes an antenna array comprising multiple antenna elements circumferentially distributed around a longitudinal axis of the antenna array. Each antenna element includes multiple patch elements disposed above one or more underlying substrates, wherein the patch elements of each antenna element are disposed on an outer side of the antenna element. Further, one or more of the antenna elements is an asymmetric antenna element, wherein a first end of the asymmetric antenna element is wider than a second, opposite end of the asymmetric antenna element, wherein a first patch element disposed proximate to the first end of the asymmetric antenna element is larger than a second patch element disposed proximate to the second end of the asymmetric antenna element, and wherein a resonant frequency associated with the first patch element is approximately the same as a resonant frequency associated with the second patch element.

Abstract: Targets to be read by image capture are illuminated and imaged over an extended range of working distances. A near imager captures return light over a relatively wide imaging field of view from a target located in a close-in region of the range. A far imager captures return light over a relatively narrow imaging field of view from a target located in a far-out region of the range. A single illuminating light assembly is shared by both the near and far imagers. An illumination light source emits illumination light, and an illuminating lens assembly optically modifies the emitted illumination light, and simultaneously illuminates a wide illumination field to illuminate the target located in the close-in region of the range, and a narrow illumination field to illuminate the target located in the far-out region of the range.

Abstract: A workstation includes a proximity system having multiple object sensors each associated with an object field of view for detecting a target object outside the housing. Each object sensor includes an IR emitter for emitting IR light into an IR emission field and an IR sensor for sensing returned IR light within an IR detection field that intersects the IR emission field. The workstation also includes a controller is operatively connected to the proximity system for activating each one of the multiple object sensors sequentially.

Abstract: A method for controlling an alternative motion-based user interface in a device comprising a projector is provided. The method comprises receiving, at the device, an input comprising an instruction to switch from a previous user interface to the alternative user interface. The device then generates an image containing a plurality of selectable elements and a pointing element, and projects the image on a surface with the projector. The device detects a movement of the device, and updates the image to stabilize the plurality of selectable elements against the detected movement and to track the detected movement with the pointing element. The device projects the updated image on the surface, and selects one of the selectable elements based on a motion vector of the pointing element relative to the selectable elements. The device performs an action corresponding to the selected one of the selectable elements.

Abstract: A method and device is for a multi-touch based correction of a handwriting sentence system. The method includes receiving touch inputs, generating interpreted input data as a function of the touch inputs, and displaying the interpreted input data on a display device. A request to correct a portion of the interpreted input data then switches to a correction mode. During the correction mode, a correction user interface is displayed on the display device, a gesture is received so setting data is determined as a function of a first disposition of the gesture, the setting data indicating a type of correction to be applied to the portion of the interpreted inputs, a correction data is determined as a function of a second disposition of the gesture, and the portion of the interpreted input data is corrected as a function of the touch input, the setting data, and the correction data.

Abstract: A system for, and a method of, configuring an electro-optical reader as a keyboard device having a selected keyboard layout containing keyboard layout data, encode each of a plurality of configuration symbols with a symbol sequence number, a total number of the configuration symbols, and a fractional amount of the keyboard layout data. During a configuration procedure, all the configuration symbols are electro-optically scanned and decoded, and the symbol sequence number, the total number of the configuration symbols, and the fractional amount of the keyboard layout data are extracted for each configuration symbol. The keyboard layout data for all the configuration symbols are linked in a sequence determined by each symbol sequence number and the total number of the configuration symbols. All the keyboard layout data is processed to configure the reader during the configuration procedure.

Abstract: Energy efficient roaming of a mobile device is described. The mobile device can include a sensor for sensing a motion of the mobile device to generate a sensor signal. A radio is capable of communicating with a wireless network. A processor activates the radio in the mobile device. The processor generates an environmental profile of the mobile device based at least on the sensor signal. A memory is coupled to the processor for storing the environmental profile. The processor deactivates the radio when the environmental profile indicates that the rate of motion of the mobile device is above a predetermined threshold for a first period of time. The processor reactivates the deactivated radio when the environmental profile indicates that the rate of motion of the mobile device is below the predetermined threshold for a second period of time.

Abstract: A method of decoding a barcode includes determining number of barcode candidates in the image captured and processing the image captured in accordance with the number of barcode candidates found. If the number of barcode candidates is one, the image captured is processed to decode the only one barcode candidate in the image captured. If the number of barcode candidates is larger than one, the image captured is processed to find a barcode candidate that overlays with an aiming location between a first location and a second location on a scan line and to decode the barcode candidate that is found that overlays with the aiming location.

Abstract: A mobile unit includes a processor, a memory, and a display. The display shows a user interface including a plurality of commands. Each sensory activated command of the plurality of commands is shown with a respective icon indicative of at least one of a motion and an orientation assigned to the sensory activated command.

Abstract: An ultrasonic locationing system includes an emitter operable to emit at least two ultrasonic frequency tones sequentially in one ultrasonic burst. These tones, which may contain multiple frequency components, define a unique regional address. A mobile device with a microphone is operable to receive the ultrasonic burst and have a processor determine the sequential tones. A location of the device can be found from a table of predefined tones assigned to known regional addresses.

Abstract: A method and apparatus for operating an electronic device is provided. The electronic device, which includes a phase lock loop (PLL) receives sensor indicators from at least one sensor. Upon receiving sensor indicators, the device identifies a motion indicator based on the sensor indicators. A parameter of the PLL is adjusted based on the motion indicator, the PLL having at least one component susceptible to microphonics. When the PLL includes a charge pump, a parameter that may be adjusted is a pump current of the charge pump. When the PLL further comprises an oscillator for generating a reference signal, the parameter that may be adjusted is a trim of the oscillator.

Abstract: Defining a radio frequency identification read area includes a radio frequency identification (RFID) reader operable to read RFID tags within a specified read area. An RFID transmitter is coupled with the RFID reader and is operable to radiating a modulated carrier in an area adjacent to the specified read area. The RFID reader controls the RFID transmitter to transmit the modulated carrier during a preamble transmission of the RFID reader to prevent any RFID tags in the adjacent area from recognizing an interrogation signal from the RFID reader.

Abstract: An arrangement for, and a method of, electro-optically reading a target by image capture, employ an aiming assembly for projecting an aiming light pattern on the target that is located within a range of working distances relative to a housing, an imaging assembly for capturing an image of the target and of the aiming light pattern over a field of view, and a controller for determining a distance of the target relative to the housing based on a position of the aiming light pattern in the captured image, for determining a scanning resolution based on the determined distance, for comparing the determined scanning resolution with a scanning resolution setting, and for processing the captured image based on the comparison.

Abstract: A mobile computing device is described. The mobile computing device includes an enclosure. A humidity sensor senses humidity inside the enclosure and generates humidity data. An internal temperature sensor senses a temperature inside the enclosure and generates internal temperature data. An external temperature sensor senses a temperature exterior to the enclosure and generates external temperature data. An environmental control apparatus adjusts at least a temperature inside the enclosure of the mobile electronic device. A processor receives the humidity data, the internal temperature data, and the external temperature data and activates the environmental control apparatus in response to the humidity data, the internal temperature data, and the external temperature data to minimize condensation from forming inside the enclosure due to rapid changes in external ambient temperature.

Abstract: Ultrasonic locationing of a tag with an emitter transducer operable to emit a single frequency ultrasonic burst. A receiver with at least two microphones is operable to receive the ultrasonic burst. Each microphone receiver contains two narrowband filters to extract frequencies above and below the ultrasonic burst frequency. A processor derives a low frequency waveform indicative of the phase difference between the dual frequency pulses coming from each microphone receiver. A correlator then determines the time difference of arrival (TDOA) between each microphone receiver by correlating the phase difference waveforms. This invention enables the creation of an ultrasonic locationing system requiring microsecond accuracy on TDOA data, as is necessary with microphone spacing of less than one foot, while using a simple single high frequency emitter source.