Abstract: A device tracks a user's field of vision/view (FOV). Based the FOV, the device may receive video and/or audio from cameras having similar FOVs. More particularly, the device may fetch a camera feed from a camera having a similar FOV as the user. Alternatively, the device may fetch a camera feed from a camera within the user's FOV.

Abstract: Disclosed herein are methods and systems for object recognition and link integration in a composite video stream. One embodiment takes the form of a process that includes detecting an object of interest in a set of video frames. The process also includes tracking the movements of the detected object of interest across a subset of the video frames in the set of video frames. The process further includes generating a composite video stream from the video frames in the subset. The composite video stream shows the tracked movements of the detected object of interest without showing background data from the video frames in the subset. The process also includes outputting the generated composite video stream.

Abstract: A communication system (200) comprises a radio communication device (100) comprising a controller (102) having law enforcement information (110) stored therein and a data acquisition device (108) for capturing area conditions surrounding a law enforcement vehicle or law enforcement personnel. The controller (102) detects violations of the law enforcement information based on variety of detection devices, such as video analytics. In response to a detection of a law violation by an offending vehicle, a transmitter (104) within communication device 100 generates an alert to similarly formed secondary devices (220) mounted and/or worn within the network. The system (200) provides an automated response through devices (220) by gathering additional data pertaining to the offending vehicle to detect for additional violations of the law, even across state lines. The system (200) may further facilitate apprehension of an offending vehicle through automated roadblocks.

Abstract: Authentication methods are used to authenticate, a device1 having an ESN1 (electronic serial number), a device2 having an ESN2, and/or a user of the devices. In one implementation, device1 receives the ESN2 in a near-field signal; derives an authentication result as a function of the ESN1 and ESN2; and sends the authentication result to an authenticator device to use in completing authentication. Authentication is confirmed when the device1 authentication result matches an authentication result independently generated by the authenticator device, which is provisioned with the ESN1 and ESN2. In a second implementation, device1 generates a RAND1 (random number) and sends the RAND1 to device2 over a near-filed link. An authenticator device confirms authentication upon receiving the same RAND1 from both device1 and device2.

Abstract: Methods and systems to increase protection of personnel during K9 deployments include receiving contextual and situational data from mobile devices associated with a plurality of officers at a scene, a mobile device associated with a K9 handler at the scene, and a device associated with a K9 at the scene, wherein each of the mobile devices and the device are communicatively coupled to one or more networks; determining safety conditions of each of the plurality of officers based on the contextual and situational data; and notifying any of the plurality of officers and the K9 handler via the associated mobile devices of unsafe conditions based on the determining.

Abstract: A first device in a group of devices is assigned a role of operating as an elected leader node for the group of devices. The elected leader node determines that a sensor entity of a sensor entity type is associated with one device in the group of communication devices. The elected leader node creates a token and associates the token with the sensor entity. The elected leader node also assigns ownership for the token to one device based on the device being associated with the sensor entity and further based on one or more of: at least one incident allocation criterion; at least one sensor entity allocation criterion; and at least one node allocation criterion. One device executes at least one predefined sensor entity rule associated with the sensor resource type based on ownership of the token assigned to the sensor entity.

Abstract: A first device in a group of devices is assigned a role of operating as a server node for the group of devices. The server node determines that an entity is associated with one device in the group of communication devices. The server node creates a token and associates the token with the entity. The server node also identifies a resource type to which the entity belongs, assigns ownership for the token to one device based on the device being associated with the entity and further based on one or more of: at least one incident allocation criterion; at least one entity allocation criterion; and at least one node allocation criterion. One device executes at least one predefined entity rule associated with the resource type based on ownership of the token assigned to the entity.

Abstract: Disclosed herein are methods and systems for presenting prioritized incident content. One embodiment takes the form of a method that includes receiving one or more status alerts from one or more public-safety devices associated with one or more public-safety responders. The method also includes correlating one or more of the received status alerts with one or more media sessions involving one or more of the public-safety responders. The method also includes prioritizing one or more of the media sessions based on prioritization criteria that includes the one or more status alerts correlated with those media sessions. The method also includes presenting one or more of the prioritized media sessions in a chronological view on respective user interfaces of one or more public-safety communication devices.

Abstract: Methods and systems to increase protection of personnel during K9 deployments include receiving contextual and situational data from mobile devices associated with a plurality of officers at a scene, a mobile device associated with a K9 handler at the scene, and a device associated with a K9 at the scene, wherein each of the mobile devices and the device are communicatively coupled to one or more networks; determining safety conditions of each of the plurality of officers based on the contextual and situational data; and notifying any of the plurality of officers and the K9 handler via the associated mobile devices of unsafe conditions based on the determining.

Abstract: A mobile device collaboration method includes provisioning a first mobile device with unique user identification related to a role and skill set of an associated user of the first mobile device, detecting a second mobile device responsive to a condition at the first mobile device, communicating the unique user identification to the second mobile device, authenticating the first mobile device through the second mobile device communicating the unique user identification to an external database, and providing access for the first mobile device through the second mobile device if the authenticating is successful. A mobile device collaboration system and a mobile device are also described.

Abstract: A mobile device collaboration method includes provisioning a first mobile device with unique user identification related to a role and skill set of an associated user of the first mobile device, detecting a second mobile device responsive to a condition at the first mobile device, communicating the unique user identification to the second mobile device, authenticating the first mobile device through the second mobile device communicating the unique user identification to an external database, and providing access for the first mobile device through the second mobile device if the authenticating is successful. A mobile device collaboration system and a mobile device are also described.

Abstract: A method and apparatus for dynamically controlling quality of service (QoS) is provided herein. During operation, a QoS manager will determine if a device is currently being used by an individual. The QoS of the device will then be tailored based on whether or not the device is currently being used by the individual. Devices that may be running applications, yet unused by anyone may have their QoS reduced. This will allow the QoS to be increased for devices that are currently being used.

Abstract: A method and apparatus for operating a camera are provided herein. During operation of the camera, a first field of view (FOV) for the camera will be determined along with “undesirable” camera directions. A determination is made whether or not to obtain images from the camera based on whether or not the first FOV is aligned with an undesirable camera direction.

Abstract: Before hibernating a computing device (102), system software components (116) are notified of an upcoming hibernation process. The notifications are conveyed through an application program interface (API) (114). At least a portion of the system software components (116) can perform one or more pre-hibernation activities to place that system software component (116) in a ready-to-resume state. Each system software component indicates when it is ready for hibernation. Responsive to receiving the indication from each of the system software components (116), the hibernation process can complete. The completed hibernation process creates a snapshot (122) in nonvolatile memory. The snapshot (122) saves state information (124) for each of the system software components (116). The state information (124) is for the ready-to-resume state of the system software components (116).

Abstract: An embodiment takes the form of a method carried out by a computing system comprising a processor and instructions for carrying out the method. The method includes (i) presenting via a user interface a plurality of data-input fields having an associated default order for user entry of respective values in the respective data-input fields, (ii) receiving respective values entered via the user interface in the respective data-input fields, (iii) storing a respective current counter value of an incrementing counter in association with receiving each respective entered value, (iv) establishing a respective user-confidence level for each of one or more of the respective entered values, wherein each established user-confidence level is set based at least in part on a comparison of the associated default order with a set of one or more of the stored counter values, and (v) outputting one or more of the established user-confidence levels.

Abstract: A communication system (200) comprises a radio communication device (100) comprising a controller (102) having law enforcement information (110) stored therein and a data acquisition device (108) for capturing area conditions surrounding a law enforcement vehicle or law enforcement personnel. The controller (102) detects violations of the law enforcement information based on variety of detection devices, such as video analytics. In response to a detection of a law violation by an offending vehicle, a transmitter (104) within communication device 100 generates an alert to similarly formed secondary devices (220) mounted and/or worn within the network. The system (200) provides an automated response through devices (220) by gathering additional data pertaining to the offending vehicle to detect for additional violations of the law, even across state lines. The system (200) may further facilitate apprehension of an offending vehicle through automated roadblocks.

Abstract: Before hibernating a computing device (102), system software components (116) are notified of an upcoming hibernation process. The notifications are conveyed through an application program interface (API) (114). At least a portion of the system software components (116) can perform one or more pre-hibernation activities to place that system software component (116) in a ready-to-resume state. Each system software component indicates when it is ready for hibernation. Responsive to receiving the indication from each of the system software components (116), the hibernation process can complete. The completed hibernation process creates a snapshot (122) in nonvolatile memory. The snapshot (122) saves state information (124) for each of the system software components (116). The state information (124) is for the ready-to-resume state of the system software components (116).

Abstract: A mobile device collaboration method includes provisioning a first mobile device with unique user identification related to a role and skill set of an associated user of the first mobile device, detecting a second mobile device responsive to a condition at the first mobile device, communicating the unique user identification to the second mobile device, authenticating the first mobile device through the second mobile device communicating the unique user identification to an external database, and providing access for the first mobile device through the second mobile device if the authenticating is successful. A mobile device collaboration system and a mobile device are also described.

Abstract: A communication system and method provide fight detection capability. Bodily parameters associated with fighting, such as limb movements, are pre-stored and individualized for a particular user. The characterization of a fight using limb movements allows for a system that can recognize a fight even when a user is unable to call for assistance. Other bodily parameters are further monitored and weighted to distinguish a fight from other activities. The automatic notification to a dispatch center or control center and notification to peer radios expedites the ability to bring aid to the user.

Abstract: Authentication methods are used to authenticate, a device1 having an ESN1 (electronic serial number), a device2 having an ESN2, and/or a user of the devices. In one implementation, device1 receives the ESN2 in a near-field signal; derives an authentication result as a function of the ESN1 and ESN2; and sends the authentication result to an authenticator device to use in completing authentication. Authentication is confirmed when the device1 authentication result matches an authentication result independently generated by the authenticator device, which is provisioned with the ESN1 and ESN2. In a second implementation, device1 generates a RAND1 (random number) and sends the RAND1 to device2 over a near-filed link. An authenticator device confirms authentication upon receiving the same RAND1 from both device1 and device2.