Abstract: Systems and methods are provided for a virtual reality security surveillance system (SSS) to generate a virtual reality map to display virtual reality presentations of a facility. The virtual reality presentations of a facility may display, in real-time, the structure of the facility along with the locations of all devices, persons, incidents, and other objects present in the facility at any given moment in time. The SSS may continuously monitor the facility and locations of devices, persons and incidents in a facility, and update the virtual reality presentations of the facility. In addition to displaying virtual reality presentations, the SSS may detect the presence of new devices and incidents in the facility. The SSS may further communicate with one or more devices to interact with one or more persons in the facility, including providing alerts and/or instructions to the one or more persons regarding any incidents that may concern them.

Abstract: An emergency response system (ERS) configured to acquire target terminal location data, emergency responder terminal location data, and equipment location data, engage a camera component of the emergency responder terminal to capture images of at least a portion of the surrounding real-world scene, providing such images for display on the touchscreen display of the emergency responder terminal, together with a selectable display object associated with a registered user that is further associated with the target terminal. Upon selection of the display object, details about the associated registered user may be displayed on the display of the emergency responder terminal.

Abstract: An emergency response system (ERS) configured to acquire equipment location data, target terminal location data, and emergency responder terminal location data; determine a horizontal distance measure between the emergency responder terminal and a select unit of equipment, determine a vertical distance measure between the emergency responder terminal and a select unit of equipment, engage a camera component of the emergency responder terminal to capture images of at least a portion of the surrounding real-world scene, providing such images for display on the touchscreen display of the emergency responder terminal, and/or providing an equipment display object for display on the touchscreen of the emergency responder terminal such that, when an image provided for display spans a region of the real-world scene within which the equipment is located, the equipment display object dynamically overlays a segment of the image associated with the acquired equipment location data.

Abstract: A server may communicatively couple to a user device and an instructor device. The server may receive location information from the user device. The location information may define visual content captured by the user device. The server may transmit the location information to the instructor device. The instructor device may present the visual content based on the received location information and receive input defining an instruction from an instructor. The server may receive instruction information defining the instruction from the instructor device. The server may transmit the instruction information to the user device. The user device may present the instruction overlaid on top of the visual content based on the received instruction information.

Abstract: A community safety system (CSS) including a notification management entity (NME) comprising servers, the NME communicatively coupled to multiple user devices and one or more administrator devices (collectively, registered user devices). The CSS includes a plurality of registered users, wherein each registered user is associated with an organization, and a user category of a set of user categories. The NME may maintain a list of the registered users and associated information. The registered users may have user devices including a CSS application operating thereon. In some embodiments the CSS enables inter-organizational communication, allowing for members of a first organization to provide alerts that the NME can pass to a second organization when the registered user is physically located within a security zone associated with a second organization but not a member of the second organization.

Abstract: An emergency response system (ERS) configured to acquire target terminal location data, emergency responder terminal location data, and equipment location data, engage a camera component of the emergency responder terminal to capture images of at least a portion of the surrounding real-world scene, providing such images for display on the touchscreen display of the emergency responder terminal, together with a selectable display object associated with a registered user that is further associated with the target terminal. Upon selection of the display object, details about the associated registered user may be displayed on the display of the emergency responder terminal.

Abstract: A community safety system (CSS) including a notification management entity (NME) comprising servers, the NME communicatively coupled to multiple user devices and one or more administrator devices (collectively, registered user devices). The CSS includes a plurality of registered users, wherein registered users may share their own location, as well as sighting information about the location of a source of an emergency (e.g. a perpetrator) with the NME of the CSS. The NME may generate and provide display objects on a visualization interface of one or more users mobile devices displaying a map, the display objects indicative of user locations and/or emergency source location in the map displayed (e.g., in accordance with the map coordinate system).

Abstract: A server may communicatively couple to a user device and an instructor device. The server may receive location information from the user device. The location information may define visual content captured by the user device. The server may transmit the location information to the instructor device. The instructor device may present the visual content based on the received location information and receive input defining an instruction from an instructor. The server may receive instruction information defining the instruction from the instructor device. The server may transmit the instruction information to the user device. The user device may present the instruction overlaid on top of the visual content based on the received instruction information.

Abstract: Systems and methods are provided for organizations to implement a proactive and comprehensive approach to the spread of infectious diseases. Specifically, epidemic response systems and methods configured to acquire anonymized, pseudonymized, data minimized, or encrypted data from mobile and stationary nodes, analyze the acquired data to derive patterns and educated inferences, and engage a display component of mobile nodes to present notifications pertaining to the derived patterns and educated inferences. The acquired data may be used by the disclosed systems and methods to determine (1) a proximity to other nodes and users associated with respective nodes including historical paths/locations exposed to infectious agents, (2) a proximity within or to an area formed via a preexisting and/or ad hoc network of beacons, (3) if a number of nodes surpasses a predetermined threshold within an area, and (4) information related to assets or equipment within an area exposed to infectious agents.

Abstract: A community safety system (CSS) including a notification management entity (NME) comprising servers, the NME communicatively coupled to multiple user devices and one or more administrator devices (collectively, registered user devices). The CSS includes a plurality of registered users, wherein each registered user is associated with an organization, and a user category of a set of user categories. The NME may maintain a list of the registered users and associated information. The registered users may have user devices including a CSS application operating thereon. In some embodiments the CSS enables inter-organizational communication, allowing for members of a first organization to provide alerts that the NME can pass to a second organization when the registered user is physically located within a security zone associated with a second organization but not a member of the second organization.

Abstract: A server may communicatively couple to a user device and an instructor device. The server may receive vicinity information, tool information, target information, instructee information, and instructor information from the user device. The vicinity information may define visual content captured by the user device. The server may transmit the vicinity information to the instructor device. The instructor device may present the visual content based on the received vicinity information, tool information, and target information, and receive input defining an instruction from an instructor. The server may receive instruction information defining the instruction from the instructor device. The server may transmit the instruction information to the user device. The user device may present the instruction adjacent to or overlaid on top of the visual content based on the received instruction information.

Abstract: Systems and methods for an emergency response system (ERS) to provide an augmented reality overlay on a real-world scene through the heads-up display (HUD) of an emergency responder. In addition to displaying information known to the ERS, an emergency responder terminal of the ERS can detect propagated signals from devices not registered with the ERS. The source and location of the propagated signal can be determined, and a generic display object can be generated representing the location of the propagated signal. The generic display object can be displayed on the HUD when the location of the source of the propagated signal falls within the field of view of a camera component of the emergency responder terminal.

Abstract: A community safety system (CSS) including a notification management entity (NME) comprising servers, the NME communicatively coupled to multiple user devices and one or more administrator devices (collectively, registered user devices). The CSS includes a plurality of registered users, wherein registered users may share their own location, as well as sighting information about the location of a source of an emergency (e.g. a perpetrator) with the NME of the CSS. The NME may generate and provide display objects on a visualization interface of one or more users mobile devices displaying a map, the display objects indicative of user locations and/or emergency source location in the map displayed (e.g., in accordance with the map coordinate system).

Abstract: An emergency response system (ERS) configured to acquire equipment location data, target terminal location data, and emergency responder terminal location data; determine a horizontal distance measure between the emergency responder terminal and a select unit of equipment, determine a vertical distance measure between the emergency responder terminal and a select unit of equipment, engage a camera component of the emergency responder terminal to capture images of at least a portion of the surrounding real-world scene, providing such images for display on the touchscreen display of the emergency responder terminal, and/or providing an equipment display object for display on the touchscreen of the emergency responder terminal such that, when an image provided for display spans a region of the real-world scene within which the equipment is located, the equipment display object dynamically overlays a segment of the image associated with the acquired equipment location data.

Abstract: A community safety system (CSS) including a notification management entity (NME) comprising servers, the NME communicatively coupled to multiple user devices and one or more administrator devices (collectively, registered user devices). The CSS includes a plurality of registered users, wherein each registered user is associated with an organization, and a user category of a set of user categories. The NME may maintain a list of the registered users and associated information. The registered users may have user devices including a CSS application operating thereon. In some embodiments the CSS enables inter-organizational communication, allowing for members of a first organization to provide alerts that the NME can pass to a second organization when the registered user is physically located within a security zone associated with a second organization but not a member of the second organization.

Abstract: Systems and methods for an emergency response system (ERS) to provide an augmented reality overlay on a real-world scene through the heads-up display (HUD) of an emergency responder. In addition to displaying information known to the ERS, an emergency responder terminal of the ERS can detect propagated signals from devices not registered with the ERS. The source and location of the propagated signal can be determined, and a generic display object can be generated representing the location of the propagated signal. The generic display object can be displayed on the HUD when the location of the source of the propagated signal falls within the field of view of a camera component of the emergency responder terminal.

Abstract: A mesh network includes a source node and non-source nodes. The source node generates geofenced message information defining a geofenced message for one or more non-source nodes within a geofence. The source node transmits the geofenced message information for reception by a non-source node within a communication range of the source node. The non-source node, responsive to receiving the geofenced message information, transmits the geofenced message information for reception by other non-source nodes within a communication range of the non-source node. Based on the location of the non-source node being within the geofence, the non-source node presents the geofenced message. Based on the location of the non-source node being within the geofence, the non-source node does not presents the geofenced message.

Abstract: A server may communicatively couple to a user device and an instructor device. The server may receive location information from the user device. The location information may define visual content captured by the user device. The server may transmit the location information to the instructor device. The instructor device may present the visual content based on the received location information and receive input defining an instruction from an instructor. The server may receive instruction information defining the instruction from the instructor device. The server may transmit the instruction information to the user device. The user device may present the instruction overlaid on top of the visual content based on the received instruction information.

Abstract: An emergency response system (ERS) configured to acquire equipment location data, target terminal location data, and emergency responder terminal location data; determine a horizontal distance measure between the emergency responder terminal and a select unit of equipment, determine a vertical distance measure between the emergency responder terminal and a select unit of equipment, engage a camera component of the emergency responder terminal to capture images of at least a portion of the surrounding real-world scene, providing such images for display on the touchscreen display of the emergency responder terminal, and/or providing an equipment display object for display on the touchscreen of the emergency responder terminal such that, when an image provided for display spans a region of the real-world scene within which the equipment is located, the equipment display object dynamically overlays a segment of the image associated with the acquired equipment location data.

Abstract: A server may communicatively couple to a user device and an instructor device. The server may receive location information from the user device. The location information may define visual content captured by the user device. The server may transmit the location information to the instructor device. The instructor device may present the visual content based on the received location information and receive input defining an instruction from an instructor. The server may receive instruction information defining the instruction from the instructor device. The server may transmit the instruction information to the user device. The user device may present the instruction overlaid on top of the visual content based on the received instruction information.