Abstract: Tracking a target across a region is disclosed. A graphical user interface is provided that displays, in a first region, video from a field of view of a main video device, and, in a plurality of second regions, video from a field of view of each of a plurality of perimeter video devices (PVDs). The field of view of each PVD is proximate to the main video device's field of view. A selection of one of the plurality of PVDs is received. In response, video from a field of view of the selected PVD is displayed in the first region, and a plurality of candidate PVDs is identified. Each candidate PVD has a field of view proximate to the field of view of the selected PVD. The plurality of second regions is then repopulated with video from a field of view of each of the plurality of identified candidate PVDs.

Abstract: Tracking a target across a region is disclosed. A graphical user interface is provided that displays, in a first region, video from a field of view of a main video device, and, in a plurality of second regions, video from a field of view of each of a plurality of perimeter video devices (PVDs). The field of view of each PVD is proximate to the main video device's field of view. A selection of one of the plurality of PVDs is received. In response, video from a field of view of the selected PVD is displayed in the first region, and a plurality of candidate PVDs is identified. Each candidate PVD has a field of view proximate to the field of view of the selected PVD. The plurality of second regions is then repopulated with video from a field of view of each of the plurality of identified candidate PVDs.

Abstract: Effecting the transmission of video data across a network of resources that includes incompatible resources is disclosed. Information indicating a source device and a destination device is received. The source device originates the video data and the destination device is to receive the video data. A plurality of paths between the source device and the destination device is identified. Each path is defined by a set of resources, the set of resources including resources needed to transmit the video data across any incompatible resources in the path. From the plurality of paths, a best path for transmission of the video data is determined based on the set of resources for that path, a distance between the source device and the destination device along that path, and a quality of the video data maintained by that path. The transmission of the video data is then effected across the determined best path.

Abstract: Tracking a target across a region is disclosed. A graphical user interface is provided that displays, in a first region, video from a field of view of a main video device, and, in a plurality of second regions, video from a field of view of each of a plurality of perimeter video devices (PVDs). The field of view of each PVD is proximate to the main video device's field of view. A selection of one of the plurality of PVDs is received. In response, video from a field of view of the selected PVD is displayed in the first region, and a plurality of candidate PVDs is identified. Each candidate PVD has a field of view proximate to the field of view of the selected PVD. The plurality of second regions is then repopulated with video from a field of view of each of the plurality of identified candidate PVDs.

Abstract: Effecting the transmission of video data across a network of resources that includes incompatible resources is disclosed. Information indicating a source device and a destination device is received. The source device originates the video data and the destination device is to receive the video data. A plurality of paths between the source device and the destination device is identified. Each path is defined by a set of resources, the set of resources including resources needed to transmit the video data across any incompatible resources in the path. From the plurality of paths, a best path for transmission of the video data is determined based on the set of resources for that path, a distance between the source device and the destination device along that path, and a quality of the video data maintained by that path. The transmission of the video data is then effected across the determined best path.

Abstract: Correlating security event data according to one or more rules to initiate one or more actions is disclosed. Security event data is received, via an event pipeline, that defines an occurrence of an event. Each type of source of event data may have its own pipeline. Event objects are created from the received security event data, and are gathered into a rules engine. The rules engine includes a plurality of rules. Each rule defines one or more conditions to be met and one or more actions to be taken in response. A rule is evaluated at a frequency over a period of time using data contained within event objects, so to determine whether the one or more conditions defined within the evaluated rule are met. The one or more actions defined by the evaluated rule are initiated whenever the one or more conditions defined by that rule are met.

Abstract: Tracking a target across a region is disclosed. A graphical user interface is provided that displays, in a first region, video from a field of view of a main video device, and, in a plurality of second regions, video from a field of view of each of a plurality of perimeter video devices (PVDs). The field of view of each PVD is proximate to the main video device's field of view. A selection of one of the plurality of PVDs is received. In response, video from a field of view of the selected PVD is displayed in the first region, and a plurality of candidate PVDs is identified. Each candidate PVD has a field of view proximate to the field of view of the selected PVD. The plurality of second regions is then repopulated with video from a field of view of each of the plurality of identified candidate PVDs.