Abstract: Architecture for providing pre-authenticated information from an endpoint for subsequently authenticating a device and/or user associated with the previously-authenticated information. A pre-authentication module of the architecture can be a trust component as part of an application that facilitates the utilization of user information and/or endpoint information in a media session protocol message to replace information that would otherwise be gathered via a dialog. In the context of IP-based voice communications, a call can be made from a client that is pre-authenticable, and no longer requires that an IP-based telephone interact with the phone user to facilitate sign-on.

Abstract: Architecture for providing pre-authenticated information from an endpoint for subsequently authenticating a device and/or user associated with the previously-authenticated information. A pre-authentication module of the architecture can be a trust component as part of an application that facilitates the utilization of user information and/or endpoint information in a media session protocol message to replace information that would otherwise be gathered via a dialog. In the context of IP-based voice communications, a call can be made from a client that is pre-authenticable, and no longer requires that an IP-based telephone interact with the phone user to facilitate sign-on.

Abstract: Architecture for providing pre-authenticated information from an endpoint for subsequently authenticating a device and/or user associated with the previously-authenticated information. A pre-authentication module of the architecture can be a trust component as part of an application that facilitates the utilization of user information and/or endpoint information in a media session protocol message to replace information that would otherwise be gathered via a dialog. In the context of IP-based voice communications, a call can be made from a client that is pre-authenticable, and no longer requires that an IP-based telephone interact with the phone user to facilitate sign-on.

Abstract: Independent telephony systems are integrated by using symmetric forking from both systems. Calls received by either system are forked to the other system. Thus, a call can be accepted by one of the systems, using its external interfaces, and presented to all devices in both systems. Each system is enabled to leverage internal call control advanced features to enhance overall user experience. Internally inserted parameters to call requests are used between the two systems for preventing endless loop of calls between the integrated systems.

Abstract: A data processing system for data exchange across application boundaries is provided. The system includes a canvas memory in which to open multiple applications. A transform component generates data structures across the canvas memory in at least one application form and automatically transforms the data structures to at least one other application form to mitigate application boundaries between disparate applications.

Abstract: A presentation system is provided. The presentation system includes a presentation component that provides an electronic data sequence for one or more members of an audience. A monitor component analyzes one or more media streams associated with the electronic data sequence, where a processing component automatically generates a media stream index or a media stream augmentation for the electronic data sequence.

Abstract: Data is processed with respect to large or practically infinite storage capacity. A cumulative data model is employed to organize accumulation of considerable amounts of data as well as facilitate interaction with the data. Accumulated data can be further processed to aid efficient location of relevant information. For instance, correlation and versioning operations, among others, can be performed to identify relationships amongst data and initiate removal of outdated data, respectively.

Abstract: Independent telephony systems are integrated by using symmetric forking from both systems. Calls received by either system are forked to the other system. Thus, a call can be accepted by one of the systems, using its external interfaces, and presented to all devices in both systems. Each system is enabled to leverage internal call control advanced features to enhance overall user experience. Internally inserted parameters to call requests are used between the two systems for preventing endless loop of calls between the integrated systems.

Abstract: A model generation system is provided. The system includes a monitor component to determine user actions and gestures during computer operations. A model component automatically infers a model from the user actions and gestures, where the model is employed to generate a schema in order to provide context for an application or data structure.

Abstract: Architecture for providing pre-authenticated information from an endpoint for subsequently authenticating a device and/or user associated with the previously-authenticated information. A pre-authentication module of the architecture can be a trust component as part of an application that facilitates the utilization of user information and/or endpoint information in a media session protocol message to replace information that would otherwise be gathered via a dialog. In the context of IP-based voice communications, a call can be made from a client that is pre-authenticable, and no longer requires that an IP-based telephone interact with the phone user to facilitate sign-on.

Abstract: A system for maintaining network information. The system resides in a network comprising a plurality of sub-networks in communication with one another over a communications backbone. Each sub-network has a router for use in performing communications with other sub-networks. A directory service is linked to the communications backbone and includes a database. The database stores router attribute information that is published by each of the routers. Using a query engine associated with the directory service, meaningful information can be gathered from the database as a function of specified router attribute information.

Abstract: A method is provided for implementing a firewall in a firewall architecture. The firewall architecture includes a plurality of network layers and a first firewall engine. The layers send packets and packet information to the first firewall engine, maintain and pass packet context to subsequent layers, and process the packets. The first firewall engine compares the packet information to one or more installed filters and returns an action to the layers indicating how to treat the packet.

Abstract: A system for maintaining network information. The system resides in a network comprising a plurality of sub-networks in communication with one another over a communications backbone. Each sub-network has a router for use in performing communications with other sub-networks. A directory service is linked to the communications backbone and includes a database. The database stores router attribute information that is published by each of the routers. Using a query engine associated with the directory service, meaningful information can be gathered from the database as a function of specified router attribute information.

Abstract: A system for maintaining network information. The system resides in a network comprising a plurality of sub-networks in communication with one another over a communications backbone. Each sub-network has a router for use in performing communications with other sub-networks. A directory service is linked to the communications backbone and includes a database. The database stores router attribute information that is published by each of the routers. Using a query engine associated with the directory service, meaningful information can be gathered from the database as a function of specified router attribute information.

Abstract: A computer system facilitates concurrent filtering and fast-forwarding of network packets. The computer system includes a network card for interfacing with multiple computer networks, and the network adapter is able to fast-forward network packets that it receives to other network destinations without assistance from the main central processing in the computer system. A fast-forwarding cache is stored on the network card to facilitate such fast-forwarding. Network packets that are not fast-forwarded are processed by the main central processing of the computer system that may apply filtering to the network packets and route network packets accordingly. The main central processing unit provides routing information to the network card so that subsequently received network packets can be transmitted to the network destinations without intervention by the main central processing unit.