Abstract: Examples described herein generally relate to a system for monitoring tags in a retail environment. The system includes an exit system including one or more radio frequency identification (RFID) readers that read a tag to obtain exit system measurements associated with a tag detection event. The system includes a memory and a processor configured to execute instructions to configuring each of a plurality of exit gates including a plurality of RFID readers with a different operating frequency than the plurality of RFID readers at an adjacent exit gate. The processor is configured to synchronize the plurality of RFID readers at each exit gate to prevent two readers at the exit gate from concurrently talking with overlapping coverage areas and a same polarization. The processor is configured to detect one or more tags within the coverage areas.

Abstract: Security event characterization and response includes, for each of a plurality of first security data collection events determining that the first event has started. Collecting, in a database, an event data record associated with the first event determined to have started, the event data record comprising gait information of a person associated with the first event. For a given security data collection event later than the plurality of first events, determining that the given event has started. Detecting given event data comprising gait information of a person associated with the given event determined to have started. Determining a similarity meeting a threshold similarity between the query and one or more sets of records of the database. Initiating an action based on the one or more sets of records of the database determined to meet a threshold similarity with the query.

Abstract: Example implementations include a system and method for providing a graphical user interface (GUI) on a display, wherein the GUI is operable for displaying a representation of a detection field of an object counting radar unit, wherein the GUI is operable for displaying a reference point that represents a rotatable object as detected by the object counting radar unit when the rotatable object is located in a field-of-view of the object counting radar unit and is rotated by a drive motor assembly.

Abstract: A method for operating a sensor includes receiving identification information from one or more electronic identification devices (EIDs) located in a vicinity of the sensor. A number of EIDs located in the vicinity of the sensor is determined based on the received identification information. A determination is made if the number of EIDs located in the vicinity of the sensor exceeds a first predefined threshold. Transmission power to the sensor is selectively adjusted based on the number of EIDs with respect to the first predefined threshold, in response to determining that the number of EIDs located in the vicinity of the sensor exceeds or is less than any number of predefined thresholds.

Abstract: Systems and methods for responding to an Electronic Article Surveillance (“EAS”) alarm's issuance. The methods involve: receiving, by a mobile device, a short range communication signal from a fixed device located in proximity to EAS equipment issuing the EAS alarm; automatically transitioning an operational mode of the mobile device from a first operational mode in which alarm response functions are disabled to a second operational mode in which alarm response functions are enabled, in response to the short range communication signal's reception; receiving, by the mobile device, a user input for inputting a reason code specifying a reason for the EAS alarm's issuance; and communicating the reason code from the mobile device to an external device for causing a deactivation of the EAS alarm's issuance.

Abstract: Systems and methods for responding to an Electronic Article Surveillance (“EAS”) alarm's issuance. The methods involve: receiving, by a mobile device, a short range communication signal from a fixed device located in proximity to EAS equipment issuing the EAS alarm; automatically transitioning an operational mode of the mobile device from a first operational mode in which alarm response functions are disabled to a second operational mode in which alarm response functions are enabled, in response to the short range communication signal's reception; receiving, by the mobile device, a user input for inputting a reason code specifying a reason for the EAS alarm's issuance; and communicating the reason code from the mobile device to an external device for causing a deactivation of the EAS alarm's issuance.

Abstract: Systems and methods for operating a security tag. The methods involve: establishing an electrical connection between the security tag and an external Power Removal Station (“PRS”); performing operations by the security tag to authenticate a detach command sent from the external PRS; allowing power to be supplied from the external PRS to an electro-mechanical component of the security tag when the detach command is authenticated; and actuating the electro-mechanical component so that a pin of the security tag transitions from an engaged position to an unengaged position without any human assistance or mechanical assistance by a device external to the security tag.

Abstract: Systems and methods for operating a security tag. The methods involve: establishing an electrical connection between the security tag and an external Power Removal Station (“PRS”); performing operations by the security tag to authenticate a detach command sent from the external PRS; allowing power to be supplied from the external PRS to an electro-mechanical component of the security tag when the detach command is authenticated; and actuating the electro-mechanical component so that a pin of the security tag transitions from an engaged position to an unengaged position without any human assistance or mechanical assistance by a device external to the security tag.

Abstract: Systems and methods for responding to an Electronic Article Surveillance (“EAS”) alarm's issuance. The methods involve: receiving, by a mobile device, a short range communication signal from a fixed device located in proximity to EAS equipment issuing the EAS alarm; automatically transitioning an operational mode of the mobile device from a first operational mode in which alarm response functions are disabled to a second operational mode in which alarm response functions are enabled, in response to the short range communication signal's reception; receiving, by the mobile device, a user input for inputting a reason code specifying a reason for the EAS alarm's issuance; and communicating the reason code from the mobile device to an external device for causing a deactivation of the EAS alarm's issuance.

Abstract: Systems and methods for operating a security tag. The methods involve: establishing an electrical connection between the security tag and an external Power Removal Station (“PRS”); performing operations by the security tag to authenticate a detach command sent from the external PRS; allowing power to be supplied from the external PRS to an electro-mechanical component of the security tag when the detach command is authenticated; and actuating the electro-mechanical component so that a pin of the security tag transitions from an engaged position to an unengaged position without any human assistance or mechanical assistance by a device external to the security tag.

Abstract: Systems and methods for detecting a security tag. The methods comprise: detecting motion of the security tag while in use to protect an article from unauthorized removal from a protected area; and emitting a first waveform from a radiating device of the security tag in response to the motion's detection. The first waveform is detectable by an Electronic Article Surveillance (“EAS”) monitoring system. The radiating device comprises a device other than an EAS element, a Radio Frequency Identification (“RFID”) device and a Near Field Communication (“NFC”) enabled device.

Abstract: Systems and methods for operating a security tag. The methods involve: establishing an electrical connection between the security tag and an external Power Removal Station (“PRS”); performing operations by the security tag to authenticate a detach command sent from the external PRS; allowing power to be supplied from the external PRS to an electro-mechanical component of the security tag when the detach command is authenticated; and actuating the electro-mechanical component so that a pin of the security tag transitions from an engaged position to an unengaged position without any human assistance or mechanical assistance by a device external to the security tag.

Abstract: Systems (100) and methods (200) for security tag detachment or deactivation authorization. The methods involve: communicating at least one first product code for each article of a plurality of purchased articles from a Point-Of-Sale (“POS”) to a remote authorization system; generating by the remote authorization system an authorization code to facilitate authorization of detachment or deactivation of security tags attached only to said plurality of purchased articles, in response to the first product code; using the authorization code to obtain a list of articles identifying first articles of the plurality of purchased articles which have security tags attached thereto; and authorizing the detachment or deactivation of only the security tags that are attached to the articles identified in the list of articles.

Abstract: A system and method for managing the power consumption of power-consuming devices. A remote device manager transmits power save schedules to a local device manager over a communication network such as the internet. The local device manager transmits power save commands to one or more devices in a location such as a store, over a dedicated local communication network. The commands instruct one or more devices to activate or de-activate its power save mode according to the power save schedules. The commands could be dependent upon one or more trigger events.

Abstract: A system and method for managing the power consumption of power-consuming devices. A remote device manager transmits power save schedules to a local device manager over a communication network such as the internet. The local device manager transmits power save commands to one or more devices in a location such as a store, over a dedicated local communication network. The commands instruct one or more devices to activate or de-activate its power save mode according to the power save schedules. The commands could be dependent upon one or more trigger events.

Abstract: A system and method for integrating point of sale (POS) data with electronic article surveillance (EAS) data, comprising a general-purpose computer for receiving and processing POS and EAS data is disclosed. The system and method preferable comprise reporting analyzed and collated data to a user.

Abstract: A system and method for integrating point of sale (POS) data with electronic article surveillance (EAS) data, comprising a general-purpose computer for receiving and processing POS and EAS data is disclosed. The system and method preferable comprise reporting analyzed and collated data to a user.

Abstract: A system and method for integrating point of sale (POS) data with electronic article surveillance (EAS) data, comprising a general-purpose computer for receiving and processing POS and EAS data is disclosed. The system and method preferable comprise reporting analyzed and collated data to a user.

Abstract: A system and method for integrating point of sale (POS) data with electronic article surveillance (EAS) data, comprising a general-purpose computer for receiving and processing POS and EAS data is disclosed. The system and method preferable comprise reporting analyzed and collated data to a user.

Abstract: A gimballed camera (34) is attached to a moving body (20) so that it can remain pointed at a desired target (28) as the body (20) moves. A gyroscope (38) is attached to the camera (34) so that it may move independently from the camera (34), so that the gyroscope (38) continuously points in one direction while the camera (34) moves relative to the gyroscope (38). Measurement devices determine the positions of the moving body (20) and gyroscope (38) relative to the camera (34). The sum of these measures yields the position of the target relative to the gyroscope (38), which translates to a command to point the gyroscope (38) at the target. The camera (34) is then moved independently to a specified alignment relative to the gyroscope (38).