Abstract: This application is directed to an integrity monitoring method performed at a computational machine in a linear communication orbit. The computational machine receives a watch list through the linear communication orbit. The watch list identifies objects for which events are to be monitored at the computational machine. While a plurality of events are occurring locally at the computational machine, the computational machine identifies the plurality of events in real-time. The identified events include events for the objects identified by the watch list, and event information for these identified events is stored in a local database of the computational machine. In response to an integrity reporting request received through the linear communication orbit, the computational machine identifies event information for at least some of the objects identified by the watch list in the local database, and returns the identified event information to a server system through the linear communication orbit.

Abstract: A respective node in a linear communication orbit receives an instruction packet through the linear communication orbit, where the instruction packet has been propagated from a starting node to the respective node through one or more upstream nodes along the linear communication orbit, and the instruction packet includes an instruction for establishing a direct duplex connection between the respective node and a respective server. In response to receiving the instruction packet, the respective node sends an outbound connection request to the respective server to establish the direct duplex connection. The respective node then uploads local data to the respective server through the direct duplex connection (e.g., in response to one or more queries, instructions, and requests received from the respective server through the direct duplex connection), where the respective server performs analysis on the local data received from the respective node through the direct duplex connection.

Abstract: A remote server dispatches an instruction packet to a node in a network through a linear communication orbit formed by a collection of nodes. The instruction packet propagates from node to node along the linear communication orbit until reaching the node. The instruction packet includes instructions for establishing a direct duplex connection between the node and the remote server. After dispatching the instruction packet to the node through the linear communication orbit, the remote server receives, from the node, a request for establishing the direct duplex connection. In response to receiving the request from the node, the remote server establishes the direct duplex connection. After establishing the direct duplex connection, the remote server issues instructions to the node to upload local data from the node to the remote server through the direct duplex connection.

Abstract: This application is directed to an integrity monitoring method performed at a computational machine in a linear communication orbit. The computational machine receives a watch list through the linear communication orbit. The watch list identifies objects for which events are to be monitored at the computational machine. While a plurality of events are occurring locally at the computational machine, the computational machine identifies the plurality of events in real-time. The identified events include events for the objects identified by the watch list, and event information for these identified events is stored in a local database of the computational machine. In response to an integrity reporting request received through the linear communication orbit, the computational machine identifies event information for at least some of the objects identified by the watch list in the local database, and returns the identified event information to a server system through the linear communication orbit.

Abstract: A remote server dispatches an instruction packet to a node in a network through a linear communication orbit formed by a collection of nodes. The instruction packet propagates from node to node along the linear communication orbit until reaching the node. The instruction packet includes instructions for establishing a direct duplex connection between the node and the remote server. After dispatching the instruction packet to the node through the linear communication orbit, the remote server receives, from the node, a request for establishing the direct duplex connection. In response to receiving the request from the node, the remote server establishes the direct duplex connection. After establishing the direct duplex connection, the remote server issues instructions to the node to upload local data from the node to the remote server through the direct duplex connection.

Abstract: A respective node in a linear communication orbit receives an instruction packet through the linear communication orbit, where the instruction packet has been propagated from a starting node to the respective node through one or more upstream nodes along the linear communication orbit, and the instruction packet includes an instruction for establishing a direct duplex connection between the respective node and a respective server. In response to receiving the instruction packet, the respective node sends an outbound connection request to the respective server to establish the direct duplex connection. The respective node then uploads local data to the respective server through the direct duplex connection (e.g., in response to one or more queries, instructions, and requests received from the respective server through the direct duplex connection), where the respective server performs analysis on the local data received from the respective node through the direct duplex connection.

Abstract: Embodiments of the present invention address deficiencies of the art in respect to multi-source messaging and provide a method, system and computer program product for sequencing multi-source messages for delivery to multiple destinations. In one embodiment, a multi-source message synchronization data processing system can be provided. The system can include a common clock and a message server configured for communicative coupling to a multiple message sources, each message source including a corresponding clock synchronized with the common clock. Multi-source message sequencing logic can be coupled to the message server and can include program code enabled to concatenate different message sequences produced by different ones of the message sources into a unified message sequence based upon timestamps applied by the message sources to messages in respective ones of the message sequences.

Abstract: A system and method for multi-vendor mediation for subscription services is presented. A mediation server assigns customized “plug-ins” to particular network access servers (NAS) that allow a service provider application to use a single interface to communicate with multiple types of NASs. Vendor specific details of NAS transaction processing are hidden in the customized plug-ins implementations in which a service provider application has no knowledge of such transaction processing information. The mediation server extracts a user identifier from a call request, and uses the user identifier to select a mediation handler plug-in. The mediation server then uses the mediation handler plug-in to communicate with a particular NAS. In addition, a RADIUS server uses a NAS identifier to assign a RADIUS handler plug-in to a NAS session, and uses the assigned RADIUS handler plug-in to communicate with the NAS.