Abstract: Systems and methods for self-checkout using an RFID tag. The methods comprise: detecting motion of the RFID tag using a motion sensor local to the RFID tag; enabling at least one communication operation of the RFID tag in response to the detection of the RFID tag's motion; performing operations by the RFID tag to communicate first information to an enterprise system; using the first information by the enterprise system to associate the RFID tag with an individual of a plurality of individuals present in a given facility; and dynamically changing displayed content of a display device to include information about an object to which the RFID tag is coupled, the display device being in proximity to the individual, in the possession of the individual or being worn by the individual.

Abstract: Techniques for detecting physical conditions at a physical premises from collection of sensor information from plural sensors execute one or more unsupervised learning models to continually analyze the collected sensor information to produce operational states of sensor information, produce sequences of state transitions, detect during the continual analysis of sensor data that one or more of the sequences of state transitions is a drift sequence, correlate determined drift state sequence to a stored determined condition at the premises, and generate an alert based on the determined condition. Various uses are described for these techniques.

Abstract: A surveillance camera and image data storage system is disclosed. The system includes surveillance cameras that generate image data. Each of the surveillance cameras calculates a self priority value for uploading the image data and sends its self priority value over a local network to the other surveillance cameras. Within each surveillance camera, a rules engine compares its self priority value and the self priority values from the other surveillance cameras to determine whether to upload the image data over the network to a remote storage system or to save the image data within each surveillance camera. This functions as an arbitration system implemented at the level of the individual cameras to arbitrate uploading of the image data, which limits network bandwidth. In another example, each surveillance camera calculates its self priority value in response to receiving security events from other security devices over a network.

Abstract: Systems and methods for making a marker. The methods comprise: disposing a resonator with a flat planar cross-sectional profile in a cavity formed in a first substrate partially defining a marker housing; sealing the cavity using a second substrate; placing a first bias element adjacent to the second substrate so that the resonator will be biased by the first bias element when the marker is in use to oscillate at a frequency of a received transmit burst; and using a physical structure in the cavity or a magnetic field passing through the cavity to reduce frictional forces between the resonator and at least the second substrate.

Abstract: Systems and methods for managing a tag. The methods comprise: placing the tag in a first operational mode in which an internal component (“IC”) necessary to facilitate communication between the tag and a tag reader (“TR”) are intentionally disabled; storing in the tag's data store a schedule specifying a scheduled time during which the tag is permitted to communicate with TR; selectively enabling IC at the scheduled time to permit the tag to communicate with TR; performing monitoring operations at the tag to determine when a predetermined condition has been detected; and causing the tag to autonomously perform an alerting function when the predetermined condition has been detected. The alerting function comprises (a) enabling a receiver of the tag to communicate with TR at an unscheduled time, and/or (b) activating an alert by enabling a hardware alerting component provided on the tag.

Abstract: A system and method for energy saving on access control products is disclosed. An access controller controls access control readers, which in turn enable access to a building and/or interior areas of the building. The access controller can identify the locations of the access control readers relative to the building, such as whether the access control readers are located on the perimeter of the building for controlling access to the building, or whether the access control readers are located within the building for controlling access to interior areas of the building. The access controller can then place one or more of the access control readers into a power saving state without compromising overall building security, such as placing interior access control readers into a power saving state when the building is assessed to be unoccupied.

Abstract: Systems and methods for coupling a tag to an item. The methods comprise: dispensing the tag from a tag feeder of a tag applicator; performing first operations by the tag applicator to mechanically move the tag into a nest of the tag applicator; determining if a given criteria is met based on feedback information received from at least one of a user of the tag applicator and a sensor provided with the tag applicator; and performing second operations by the tag applicator to couple the tag to the item, when a determination is made that the given criteria is met.

Abstract: Systems and methods for operating a security tag. The methods involve: receiving, by the security tag, an authorization code comprising a security tag identifier signed using a cryptographic key of a plurality of cryptographic keys that are respectively assigned to a plurality of security tags; performing operations by the security tag to verify a signature of the authorization code; and performing detach operations or deactivation operations by the security tag, responsive to the signature's verification. The detach operations cause a mechanical detachment of the security tag from an item. The deactivation operations cause a disablement of a response by the security tag to an interrogation signal from a Radio Frequency Identification (“RFID”) system or an Electronic Article Surveillance (“EAS”) system.

Abstract: Disclosed is a system for a facility supporting an access controller, at least one ingress card reader and an auto-enrollment type controller including a front panel having a single button, a controller board, a terminal block for connecting at least the one ingress card reader to the auto-enrollment type controller board and to connect the auto-enrollment type controller to door locks, and a mounting plate, with the auto-enrollment type controller being configured by a user according to operational requirements of the facility by the user asserting the button for a defined period of time.

Abstract: Systems and methods for operating a pedestal of an Electronic Article Surveillance (“EAS”) system. The methods comprise: performing tag detection operations by a circuit of a first pedestal to detect an active security tag located in an EAS detection zone of the EAS system; and performing open-look operations by the circuit of the first pedestal simultaneously with the tag detection operations, where the open-look operations cause a portion of the first pedestal that is formed of an opaque material (1) to appear at least partially transparent or (2) to appear as if the portion has at least one aperture formed therethrough.

Abstract: Systems and methods for finding tags which are unreadable at a particular time. The methods comprise: performing first operations by a first mobile tag reader to read tags at a first time and to determine physical locations of the tags which were read at the first time; and performing second operations by the first mobile tag reader or a second mobile tag reader at a second later time for determining a first geographic area in which a first tag which is unreadable resides. The second operations comprise: analyzing tag read data associated with the first operations to identify second tags which were read along with the first tag on a previous occasion; and selecting the first geographic area to comprise a second geographic area defined by the physical locations of the second tags which were determined during the first operations by the first mobile tag reader.

Abstract: A system and method of designating regions of interest for surveillance cameras is disclosed. The system enables definition of regions of interest simultaneously across multiple cameras. This is useful when the cameras are positioned to monitor the same region of interest within their scenes. Each camera monitors image data for designation of regions of interest, stores the regions of interest, and analyzes the image data from the cameras based on the regions of interest. Preferably, each camera has an integrated analytics system for analyzing the image data based on the regions of interest. A setup process between a user device (e.g. mobile phone) and the cameras enables definition of the regions of interest. In embodiments, the regions of interest are defined in response to the cameras tracking either the user device or an optical device as an operator moves the devices to outline the regions of interest within the scene.

Abstract: Systems and methods for facilitating tag authenticity validation. The methods comprise: detecting a tag's arrival/presence at a waypoint along a supply chain path; obtaining a ChainStart Value and a first ChainEnd Value from the tag; generating a public key and a private key; transforming the first ChainEnd Value into a second ChainEnd Value using the private key; storing in a data store at least a hash of the ChainStart Value, a hash of the second ChainEnd Value, and the public key as a transaction record entry; causing the first ChainEnd Value of the tag to be replaced with the second ChainEnd Value; and validating the tag's authenticity at a second waypoint along the supply chain path using at least the ChainStart Value, the second ChainEnd Value, and the transaction record entry comprising the hash of the ChainStart Value, a hash of the first ChainEnd Value and the public key.

Abstract: A mesh network-based environmental data capture system and method for providing communication between a base system having at least one wireless input capture device ICD(s) and other ICD(s), wherein the ICD(s) are capable of smart cross-communication with each other and remote access to their inputs via a server computer, including the steps of providing this base system; at least one user accessing the ICDs and inputs remotely via a user interface through a remote server computer and/or electronic device communicating with it, for providing a secure surveillance system with extended inputs range and wireless smart cross-communication for monitoring a target environment.

Abstract: Techniques for detecting physical conditions at a physical premises from collection of sensor information from plural sensors execute one or more unsupervised learning models to continually analyze the collected sensor information to produce operational states of sensor information, produce sequences of state transitions, detect during the continual analysis of sensor data that one or more of the sequences of state transitions is a drift sequence, correlate determined drift state sequence to a stored determined condition at the premises, and generate an alert based on the determined condition. Various uses are described for these techniques.

Abstract: Systems (100) and methods (300) for selectively controlling privacy masking of image and/or video content. The methods involve: performing privacy masking operations by a privacy masking component to encode at least one first captured image or first captured video with first privacy masking features obscuring privacy sensitive areas of the first captured image or first captured video; detecting an arming of an intrusion detection system or an alarm condition; and communicating a message to the privacy masking component for overriding the privacy masking operations such that at least one second captured image or second captured video is not encoded with second privacy masking features during a certain period of time, in response to the arming of an intrusion detection system or the detection of the alarm condition.

Abstract: A surveillance system includes one or more camera systems at least some of the camera systems including a camera element comprising optical components to capture and process light to produce images, camera processing circuitry that receives the light and processes the light into electrical signals and encodes the signals into a defined format, power management circuitry to power the camera system, the power management system including first and second power interfaces and first and second video output interfaces.

Abstract: A security system includes sensor devices, a security panel that receives signals from the sensor devices and that executes algorithms to determine the presence of an alarm that is sent to a game console coupled to a monitor. The game console includes a processor and memory, a graphics processor, and a network interface that receives data from the security panel and causes a message regarding the alarm condition to be displayed on the monitor.

Abstract: Systems (100, 150) and methods (700, 800) for transitioning a handheld device (100) from a partially inoperative state to a fully operative state. The methods comprise performing operations to pair a first communication device (150) and a second communication device (100). In response to the pairing of the first and second communication devices, the second communication device is transitioned from the partially inoperative state in which deactivation operations for deactivating an active security tag (124) are disabled to the fully operative state in which said deactivation operations are enabled.

Abstract: Systems and methods for deactivating an Electronic Article Surveillance (“EAS”) security tag coupled to an item. The methods comprise: detecting a presence of the EAS security tag in proximity to a tag deactivator; determining a distance between the item and at least one deactivation coil of the tag deactivator, in response to a detection of the EAS security tag; dynamically adjusting a deactivation field strength setting of the tag deactivator based on the distance that was previously determined; and using the at least one deactivation coil to generate a deactivation field in accordance with the deactivation field strength setting which was previously dynamically adjusted.