Abstract: Systems and methods for operating a tag reader. The methods comprise: performing tag read operations by the tag reader to read tags; processing first information received from the read tags to identify which tags are newly detected tags; adding entries for the newly detected tags in a local list stored in a local memory of the tag reader; communicating second information at least identifying the newly detected tags from the tag reader to a remote computing device; receiving, by the tag reader, feedback information generated by the remote computing device which specifies at least a count of entries added to a remote list stored in a remote datastore based on the second information; and selectively outputting a notification from the tag reader based on the value of the count.

Abstract: A system and method for deadzone detection in a surveillance camera network is disclosed. In a preferred embodiment, a mobile user device held by an installer is moved through one or more critical paths within the premises while surveillance cameras of the network are capturing image data of the premises. An analytics system then tracks the installer/user device through the image data over the time interval for the critical path definition, and locates deadzones based on position information of the premises along the critical path and absence of installer/user device in the image data over the time interval. In another embodiment, an analytics system identifies individuals within image data captured from the cameras, tracks movement of the individuals across the fields of view of the cameras represented by the image data, and infers deadzones based on tracking the individuals and deadzone times calculated for each of the individuals.

Abstract: Systems and methods for determining a tag's position in a given area. The methods comprise: performing, by a tag reader, a standard inventory process to obtain a unique identification code for a first tag in a randomly selected timeslot; assigning, by the tag reader, a local short address to the first tag that is shorter than the unique identification code; wirelessly communicating the local short address from the tag reader to the first tag; performing, by the tag reader, an enhanced inventory process to receive a ping command response signal including the local short address from the first tag in an assigned timeslot; and determining a first position of the first tag in the given area based on the phase of the ping command response signal.

Abstract: A system and method for automated operation of a camera system provides for a positioning system that moves the camera system to a field of view to search for objects or events of interest to track. If objects or events of interest are detected prior to the expiration of a dwell timer, the dwell timer is interrupted and tracking of the objects or events of interest is initiated. To prevent the security camera from being distracted indefinitely by unimportant objects, the positioning system changes the field of view of the security system upon expiration of a track timer. Alternatively, if the security camera does not identify an object to track prior to expiration of a dwell timer, then the positioning system changes the field of view of the camera system to search for other objects or events of interest.

Abstract: A surveillance camera system and method is disclosed. The system includes one or more surveillance cameras that capture images of scenes, and one or more calibration systems that automatically generate ground planes from the captured images from the surveillance cameras. Foreground objects in the scenes are then analyzed against the ground planes to determine whether the ground planes may require updating and/or recalculation.

Abstract: Systems and methods for operating a Unified Security Device (“USD”). The methods comprise: receiving an Electronic Article Surveillance (“EAS”) interrogation signal with an antenna of the USD; processing the EAS interrogation signal using a processor unit of the USD; using the processor unit to generate an EAS response signal that emulates a response signal produced by an Acousto-Magnetic (AM) type of EAS security tag, in response to the EAS interrogation signal; and communicating the EAS response signal from the USD.

Abstract: A building automation system generates occupancy information for occupants of spaces of a building (e.g. quantity, identity and/or location of the occupants) based on occupancy sensors in the spaces. The occupancy sensors capture speech sounds originating from one or more occupants of the spaces and/or ultrasonic emissions originating from one or more user devices of the occupants are via microphone arrays. Audio data based on the captured sound is then generated. Position information for the sources of the sound is determined based on the audio data, and the audio data is enhanced based on the position information via a beamforming process. Occupancy information for the spaces is generated based on the audio data. Environmental conditions of the spaces are controlled based on the presence, absence, position, orientation, distribution and/or preferences of the occupants in the space.

Abstract: Systems and methods for operating a marker. The method comprising: receiving, by a communications element of the marker, a marker deactivation signal from an external device; and causing a coil surrounding at least the marker's resonator to be shorted in response to the marker deactivation signal, by supplying power to a deactivation element so that the deactivation element switches from an open state to a closed state. In some scenarios, the power is supplied by an energy harvesting element disposed in the marker.

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: Systems and methods for virtualized computing or cloud-computing network with distributed input devices and at least one remote server computer for automatically analyzing received video, audio and/or image inputs for providing social security and/or surveillance for a surveillance environment, surveillance event, and/or surveillance target.

Abstract: Disclosed is a networked system for detecting conditions at a physical premises. The networked system includes a local computer system configure to read a configuration file that determines processing performed by the local computer system and evaluate collected sensor data with respect to the configuration file, for first sensor data to be processed by the local computer, and execute unsupervised learning models to continually analyze the first sensor data to produce operational states and detect drift sequences that are correlated to stored determined conditions. The networked system also includes a remote computer system that execute unsupervised learning models to continually analyze the collected sensor information. An alert is asserted by at least one of the local computer and the remote computer based on the determined conditions.

Abstract: A student tracking system tracks students' location traveling to and from schools and provides information about the students to responsible parties associated with the students such as parents, bus drivers, school administrators, and faculty. Readers read identification information from tags (e.g. radiofrequency identification tags) associated with the students and/or entrance/exit points of school buses, school buildings and/or classrooms and send the identification information along with location information (e.g. via a global navigation satellite system receiver) to a tracking and authorization module, which generates event information for entering and exiting events at the entrance/exit points, verifies that the event information matches predetermined school schedule, bus and route information, detects anomalies in the event information, and generates attendance information.

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: A surveillance system monitors a predetermined environment based on received data. The surveillance system includes a first intelligent appliance configured to capture video and/or still images and configured to be in wireless communication with a second intelligent appliance that operates based on data from the first intelligent appliance. The surveillance system can detect a person located within the predetermined environment and can track the person's movement. The surveillance system is configured to allow remote viewing of data and/or controlling cameras.

Abstract: Directional antenna capabilities are leveraged to set up “invisible walls” or borders within buildings, for example. This can be used to protect any delineated area or zone in a building or other regions. The individuals carry beacon devices such as dedicated fobs or personal mobile computing devices. The access control system using directional antennas can then determine when they cross a border, such as move into (or out of) the area of interest. When that breach is detected, security policies can be followed or some other action can take place. In other examples, the approach can be used for “people counting” within a designated area or track the movements of people. Image analysis capabilities can be further added. For example, image data can be captured by surveillance cameras of the border or regions around the border or area within the building.

Abstract: Systems and methods for operating a Security Tag (“ST”) coupled to an item. The methods comprise: storing first Item Related Information (“IRI”) is a datastore of ST that is associated with an output device and second IRI in an integrated RFID element of ST; receiving third IRI at a microcontroller of ST; performing comparison operations by the microcontroller to compare the third IRI with the first and/or second IRI; using the third IRI to write over the first and/or second IRI based on results of the comparison operations; and synchronizing advertised information and register information for the item by outputting the third IRI from the output device and the integrated RFID element.

Abstract: Systems and methods for detaching a security tag from an article. The methods comprising: integrating a mobile communication device with a mobile tag detacher; receiving a tag body of the security tag in an insert space of the mobile tag detacher; mechanically coupling the tag body of the security tag to the mobile tag detacher if at least one of the mobile communication device and the mobile tag detacher verified that removal of the security tag from the article is permitted; performing operations by the mobile tag detacher to facilitate the detachment of the security tag from the article; and decoupling the tag body from the mobile tag reader such that the tag body is removable from the insert space.

Abstract: Systems and methods for operating a pedestal of an Electronic Article Surveillance (“EAS”) system. The methods comprise: capturing at least one first image or video by a camera coupled to the pedestal; analyzing the at least one first image or video to detect a person's presence and determine the person's location relative to the camera; determining a first beam pointing direction for the pedestal based on results of the analysis of the at least one first image or video; and steering a read beam of the pedestal in accordance with the first beam pointing direction so that a main lobe of the pedestal's antenna field pattern covers a first area of an interrogation zone.

Abstract: Systems and methods for determining a physical location of a first Radio Frequency Identification (“RFID”) tag. The methods involve: analyzing timestamped tag read information acquired during multiple tag reads to determine a first physical location for the first RFID tag read by the mobile reader while moving through a facility; identifying second RFID tags from a plurality of RFID tags read by the mobile reader that are located in proximity to the first RFID tag and that are coupled to objects similar to an object to which the first RFID tag is coupled; selecting an RFID tag from the second RFID tags that has a first location confidence value associated therewith which is greater than second location confidence values associated with other RFID tags of the second RFID tags; and modifying the first physical location based on a second physical location at the time of reads, location of the RFID tag selected from the second RFID tags.