Abstract: Provided is a system for identification of an item, wherein the system includes a conveyor belt, a positioning device and a reader operable to receive at least one reading, wherein the positioning-device is configured to retrieve a first position of the item) at a first time instant before the first antenna and a second position of the item at a second time instant after the first antenna, the first and second time instants defining a time window, wherein the reader is configured to extract from each reading retrieved by the first antenna a measurement of the phase of the signal transmitted by the tag and perform a data processing of the phase measurements, whereby the identification of the item is accomplished.

Abstract: A method and system for identification of an item is provided, wherein the system includes a conveyor belt, a conveyor belt controller and a reader operable to receive at least one reading from at least one tag attached to the item and extract from the reading a measurement of the phase of the signal transmitted by the tag and received at at least one antenna of the reader, the antenna being adapted to be arranged at a read point along the conveyor belt, wherein the conveyor belt controller is configured to start the conveyor belt at a first time instant, after the item has been placed on the conveyor belt, and to stop the conveyor belt at a second time instant, when the item has passed the antenna of the reader whereby the identification of the item is accomplished.

Abstract: A method and system for identification of an item is provided, wherein the system includes a conveyor belt, a positioning device and a reader operable to receive at least one reading at at least one first antenna from at least one tag attached to the item, the first antenna being adapted to be arranged at a read point along the conveyor belt, wherein the positioning device is configured to retrieve a first position of the item at a first time instant before the first antenna and a second position of the item at a second time instant after the first antenna, the first and second time instants defining a time window, wherein the reader is configured to extract from each reading retrieved by the first antenna a measurement (6) of the phase of the signal transmitted by the tag (5) and perform a data processing of the phase measurements whereby the identification of the item (2) is accomplished.

Abstract: A device for automatic detection of whether an item is correctly routed is provided, the item including at least one radio frequency tag, wherein the device includes an RF communication mechanism for receiving at least one reading from the RF tag, the device being adapted to be arranged at a read point in proximity of the conveying mechanism, which conveying mechanism is operable to transport the item towards a destination, wherein the device is configured to extract identification and/or destination information from the reading received from the item on the conveying mechanism crossing past the device and to verify whether the item is correctly routed. Also, provided is a method for automatic detection of whether an item is correctly routed.

Abstract: A method and system for estimating position of a moving RFID tag is provided. The method includes transmitting at least one interrogator signal; receiving, at an interrogator antenna, a reflected signal from the RFID tag; determining phase changes of the reflected signal with respect to the phase of the at least one interrogator signal; weighting the phase changes based on instant power corresponding to the phase changes; producing a phase trajectory for the reflected signal based on the weighted phase changes; and estimating position of the RFID tag relative to the interrogator antenna based on the peak of the phase trajectory for the reflected signal.

Abstract: A quick mount connector allows for easy rotation of an object, such as an antenna. The connector has a base, a coupling member and an object mount. The base is configured for connection to a surface and includes base teeth around an inner circumference. The coupling member is configured to be inserted into the base and rotates relative the base about a first axis of rotation. The coupling member has a cylindrical portion with mating teeth along its outer circumference; the mating teeth are configured to engage the base teeth. The object mount attaches to the coupling member and rotates relative the coupling member about a second axis of rotation. The object mount has a mounting plate configured for connection to the object; and a locking assembly configured to adjustably couple the coupling member to the object mount.

Abstract: An active logistical tag for cooperation with cargo elements, the tag comprising: a housing compatible for attachment of the cargo; a sensor suite for sensing logistical prompts, the prompts including at least one of motion, static magnetic fields and incident electromagnetic radiation; and a transmitter coupled to the sensor suite, for communicating logistical information in response to the logistical prompts.

Abstract: A method for determining direction of travel of a tag is described. The method includes a tag that receives sample signals from two spatially separate LF magnetic fields generated by an exciter. The received signal strength indicator (RSSI) data associated with each of the sample signals is determined. A first RSSI profile is created for the first LF magnetic fields. A second RSSI profile is created for the second LF magnetic fields. The first and second RSSI profiles are compared to determine a direction of travel of the object. A tag, an exciter and a computer readable medium are configured to facilitate the method.

Abstract: An automated item notification device is described. The automatic notification device is configured to be secured within a drop box and comprises a communication module, a deposit sensor, a camera and processor. The communication module communicates with a remote resource. The deposit sensor senses deposit of an object and provides a wake-up signal in response thereto. The camera captures an image of an interior of the drop box in response to the wake-up signal. The processor is configured to compare the captured image with a previously acquired reference image stored in memory to determine if the object has been received in the drop box. In response to detection that the objected has been received in the drop box, a message is transmitted to the remote resource that the drop box needs to be serviced, and the processor enters an extended sleep mode. In response to detection that the objected has not been received in the drop box, the processor enters a sleep mode.

Abstract: An active logistical tag for cooperation with cargo elements, the tag comprising: a housing compatible for attachment of the cargo; a sensor suite for sensing logistical prompts, the prompts including at least one of motion, static magnetic fields and incident electromagnetic radiation; and a transmitter coupled to the sensor suite, for communicating logistical information in response to the logistical prompts.

Abstract: An active logistical tag for cooperation with cargo elements, said tag comprising: a housing compatible for attachment of said tag to said cargo; a sensor suite for sensing logistical prompts, said prompts including at least one of motion, static magnetic fields and incident electromagnetic radiation; and a transmitter coupled to said sensor suite, for communicating logistical information in response to said logistical prompts.

Abstract: Logistical passage measurement systems are provided. A representative system includes: an excitation unit having dual loop antennae, with a first loop and a second loop, the two loops located in and parallel to the same plane, and adjacent to one another, and a control box for exciting said antennae, the control box arranged to drive the currents of the two loops, such that the phase difference between the currents of said two loops alternates with time between 0° and 180°, and wherein the amplitude of the currents for each loop is of a first level when the phase difference is 180° and wherein said amplitude is of a second level, lower than the first level, when the phase difference is 0°.

Abstract: A system for determining whether an object is within a region of interest includes a radiofrequency signal receiver outside of the region of interest configured to receive radiofrequency signals from the direction of the region of interest; and a radiofrequency transponder having a directional antenna outside of the region of interest and configured to transmit radiofrequency signals away from the radiofrequency signal receiver and towards the region of interest. Presence of an object within the region of interest causes radiofrequency signals transmitted by the radiofrequency transponder to reflect off of the object towards the radiofrequency signal receiver.

Abstract: A method and system for estimating position of a moving RFID tag is provided. The method includes transmitting at least one interrogator signal; receiving, at an interrogator antenna, a reflected signal from the RFID tag; determining phase changes of the reflected signal with respect to the phase of the at least one interrogator signal; weighting the phase changes based on instant power corresponding to the phase changes; producing a phase trajectory for the reflected signal based on the weighted phase changes; and estimating position of the RFID tag relative to the interrogator antenna based on the peak of the phase trajectory for the reflected signal.

Abstract: A method of detecting position of a moving RFID tag relative to an antenna, includes continually receiving a signal from the RFID tag at the antenna. The phase of the received signal over a time period is detected and, based on a maximum detected phase, the position of the RFID tag relative to the antenna is detected.