Abstract: Rapid edge-coupling and decoupling of circuits is effected by current carrying magnets. The magnets are preferably neodymium iron boron for magnetic strength, although other suitable magnetic compositions are contemplated. As used herein, the term “magnet” includes both one or more magnetic materials, and any electrically conductive protective or other coating about the magnetic material(s). In preferred embodiments at least one of the magnets is slidable in at least a first degree of freedom. Movement of the magnet is constrained by a mechanical guide, which can optionally have curved sides. Electrical current can be carried to/from the magnet through an electrical path on or in a substrate, and in some embodiments through sides of the mechanical guide. In various embodiments, the electrical path might or might not extend to the edge of the substrate.

Abstract: Transmitting a radio frequency identification (RFID) interrogation signal into an RFID interrogation zone of an Electronic Article Surveillance (EAS) system. Detecting at least one response signal from a first RFID tag of the EAS system responding to the interrogation signal. Capturing, at one or more times in a window of time around the detection, sensor data within a sensor field, the sensor field and the RFID interrogation zone overlapping to form a zone of interest. Characterizing movement of a non-tag object during the window of time based on the captured sensor data. Determining whether the first RFID tag is associated with the characterized non-tag object based on a comparison of the at least one response signal and the characterized movement of the non-tag object.

Abstract: Transmitting a radio frequency identification (RFID) interrogation signal into an RFID interrogation zone of an Electronic Article Surveillance (EAS) system. Detecting at least one response signal from a first RFID tag of the EAS system responding to the interrogation signal. Capturing, at one or more times in a window of time around the detection, sensor data within a sensor field, the sensor field and the RFID interrogation zone overlapping to form a zone of interest. Characterizing movement of a non-tag object during the window of time based on the captured sensor data. Determining whether the first RFID tag is associated with the characterized non-tag object based on a comparison of the at least one response signal and the characterized movement of the non-tag object.

Abstract: Transmitting a radio frequency identification (RFID) interrogation signal into an RFID interrogation zone of an Electronic Article Surveillance (EAS) system. Detecting at least one response signal from a first RFID tag of the EAS system responding to the interrogation signal. Capturing, at one or more times in a window of time around the detection, sensor data within a sensor field, the sensor field and the RFID interrogation zone overlapping to form a zone of interest. Characterizing movement of a non-tag object during the window of time based on the captured sensor data. Determining whether the first RFID tag is associated with the characterized non-tag object based on a comparison of the at least one response signal and the characterized movement of the non-tag object.

Abstract: Transmitting a radio frequency identification (RFID) interrogation signal into an RFID interrogation zone of an Electronic Article Surveillance (EAS) system. Detecting at least one response signal from a first RFID tag of the EAS system responding to the interrogation signal. Capturing, at one or more times in a window of time around the detection, sensor data within a sensor field, the sensor field and the RFID interrogation zone overlapping to form a zone of interest. Characterizing movement of anon-tag object during the window of time based on the captured sensor data. Determining whether the first RFID tag is associated with the characterized non-tag object based on a comparison of the at least one response signal and the characterized movement of the non-tag object.

Abstract: Systems and methods for uniquely identifying areas within a facility for location services. The methods involve: operating a plurality of beacons disposed within the facility; emitting, from a first beacon of the plurality of beacons, a first beam having a first beamwidth in a manner so as to communicate at least a unique identification code associated with a first physical area of the facility; changing a value for a beamwidth parameter to modify an area of coverage for the first beacon; and emitting, from the first beacon, a second beam having a second beamwidth in a manner so as to communicate at least the unique identification code associated with the first area of the facility, where the second beamwidth is different from the first beamwidth. The changing is performed autonomously by the first beacon or in response to the first beacon's reception of a command from a remote beacon receiver.

Abstract: Systems and methods for uniquely identifying areas within a facility for location services. The methods involve: operating a plurality of beacons disposed within the facility; emitting, from a first beacon of the plurality of beacons, a first beam having a first beamwidth in a manner so as to communicate at least a unique identification code associated with a first physical area of the facility; changing a value for a beamwidth parameter to modify an area of coverage for the first beacon; and emitting, from the first beacon, a second beam having a second beamwidth in a manner so as to communicate at least the unique identification code associated with the first area of the facility, where the second beamwidth is different from the first beamwidth. The changing is performed autonomously by the first beacon or in response to the first beacon's reception of a command from a remote beacon receiver.

Abstract: Systems (100) and methods (400) for determining a location of an object within a facility. The methods involve: performing operations by beacons to illuminate a plurality of Zone-Of-Interests (“ZOIs”) including objects within the facility; performing operations by a handheld reader to read RFID tags coupled to the objects; performing operations by a beacon receiver to obtain a first location identifier transmitted from a first beacon while the handheld reader is reading the RFID tags; using the first location identifier to determine approximate locations of the RFID tags which were read in time proximity to the beacon receiver's reception of the location identifier; and optionally generating a three dimensional map showing locations of the RFID tags. Notably, the beacon receiver is an accessory of the handheld receiver or a standalone device worn by an operator of the handheld device.

Abstract: The invention relates to a device, system, and method for expanding the memory capacity of a memory module. A control unit and memory bank switch are mounted on a memory module to selectively control write and/or read operations to/from memory devices communicatively coupled to the memory bank switch. By selectively routing data to and from the memory devices, a plurality of memory devices may appear as a single memory device to the operating system. That is, the invention expands the addressable memory banks on a module by making two smaller-capacity memory devices emulate a single higher-capacity memory device.

Abstract: An automatic audio level control device for adjusting the audio level of an appliance in response to changes in ambient sound levels. A microprocessor (16) monitors the ambient sound produced by an audio appliance using a microphone (10) to determine average low and high audio thresholds. When the ambient sound level is outside the threshold range, the microprocessor transmits volume control signals using infrared emitter (20) to the audio appliance to sustain a user-defined average audio level.