Abstract: A method, a system, and a computer program product for positive domain enforcement. At least one processor receives one or more requests from one or more sources to access data. A source address associated with received one or more requests is determined. The source address associated with received one or more requests is compared to one or more stored request profiles. Based on the comparing, a forwarding mode for received one or more requests is determined. Received one or more requests are transmitted to one or more destinations in accordance with the determined forwarding mode.

Abstract: Systems and methods described herein may perform processing associated with loading, with a boot agent injection module in communication with a processor; a boot agent into a memory of a network device comprising a processor; and perform processing associated with using the boot agent to configure, with the network device, the network device to connect to a remote computer.

Abstract: Systems and methods for communication. A network abstraction layer (NAL) is built on a public Internet; and a network virtualization layer (NVL) is built on the NAL.

Abstract: Systems and methods described herein may perform processing associated with loading, with a boot agent injection module in communication with a processor; a boot agent into a memory of a network device comprising a processor; and perform processing associated with using the boot agent to configure, with the network device, the network device to connect to a remote computer.

Abstract: At least one development module in communication with at least one processor and at least one memory may assemble at least one network model comprising at least one of a plurality of classes, the assembling being performed using object oriented modeling, each class comprising at least one property defining at least one network concept for at least one network device. At least one control module in communication with the at least one processor and the at least one memory may generate the at least one network concept from the at least one network model. At least one orchestration module in communication with the at least one processor and the at least one memory may transmit the at least one network concept to the at least one network device corresponding to the at least one class in the at least one network model.

Abstract: Systems and methods for communication. A network abstraction layer (NAL) is built on a public Internet; and a network virtualization layer (NVL) is built on the NAL.

Abstract: Systems and methods described herein may perform processing associated with loading, with a boot agent injection module in communication with a processor; a boot agent into a memory of a network device comprising a processor; and perform processing associated with using the boot agent to configure, with the network device, the network device to connect to a remote computer.

Abstract: A computerized system and method for automatically determining customized configurations for each of a plurality of endpoints of a virtual private network (VPN) and deploying the configurations to the endpoints, comprising: accepting, using an interface, parameters required for building the configurations from a user, the configurations enabling the endpoints to process a mixture of time sensitive and non-time sensitive data, and the parameters comprising: endpoint IP addressing scheme information and network design information; automatically generating, using at least one configuration engine, complete customized endpoint configurations for the parameters, and instantiating the configurations based on endpoint hardware-specific information, with no further input required from the user; and deploying, using a scheduler, the configurations to the endpoints of the at least one VPN.

Abstract: Systems and Methods for determining endpoint configurations for endpoints of a virtual private network (VPN) and deploying the configurations to the endpoints. Parameters required for building the configurations are accepted from a user, the configurations enabling the endpoints to process a mixture of time sensitive and non-time sensitive data, and the parameters comprising: endpoint IP addressing scheme information, network design information, and templates used to define profiles of the endpoints. The configurations for the parameters are generated, wherein the parameters comprise endpoint authentication information, and the configurations are set based on endpoint hardware-specific information with no further input required from the user. Each endpoint is queried to verify that the endpoint hardware-specific information is consistent with the configurations for the endpoint. The configurations are deployed to the endpoints of the VPN.

Abstract: Systems and methods for communication. A network abstraction layer (NAL) is built on a public Internet; and a network virtualization layer (NVL) is built on the NAL.

Abstract: Systems and methods for communication. A network abstraction layer (NAL) is built on a public Internet, the NAL comprising an overlay network allowing a direct Internet Protocol (IP) communication between endpoints in a virtual private network (VPN) over the Internet. A network virtualization layer (NVL) is built on the NAL, the NVL comprising a VPN aggregator using DGOI protocol encryption, providing synchronization of session keys to encrypt a payload between all the endpoints over the NAL such that encrypted traffic is able to be decrypted by any endpoint for an entire session to allow instantly available communication between all the endpoints.

Abstract: A computerized system and method for automatically determining customized configurations for each of a plurality of endpoints of a virtual private network (VPN) and deploying the configurations to the endpoints, comprising: accepting, using an interface, parameters required for building the configurations from a user, the configurations enabling the endpoints to process a mixture of time sensitive and non-time sensitive data, and the parameters comprising: endpoint IP addressing scheme information and network design information; automatically generating, using at least one configuration engine, complete customized endpoint configurations for the parameters, and instantiating the configurations based on endpoint hardware-specific information, with no further input required from the user; and deploying, using a scheduler, the configurations to the endpoints of the at least one VPN, wherein the VPN is an mGRE VPN using NHRP protocol.

Abstract: A method, apparatus and article of manufacture for building next generation improved regional virtual private networks over the Internet. The method comprises of building two layers on top of the public infrastructure (001): a network abstraction layer (NAL) (002) and a network virtualization layer (NVL) (003): the NVL (003) is built on top of the NAL (002). The NVL (003) consists in Group Domain of Interpretation (GDOI) domain deployments on virtualized hardware aggregators over a NAL (002). The latter consists in point-to-multipoint Generic Routing Encapsulation (GRE) networks over the Internet (001). Both the NVL (003) and NAL (002) can be deployed using advanced unattended provisioning methodology.

Abstract: A method, apparatus and article of manufacture for building next generation improved global virtual private networks over the Internet. The method comprises of building two layers on top of the public infrastructure (001): a network abstraction layer (NAL) (002) and a network virtualization layer (NVL) (003): the NVL (003) is built on top of the NAL (002). The NVL (003) consists in Group Domain of Interpretation (GDOI) domain deployments on virtualized hardware aggregators over a NAL (002). The latter consists in point-to-multipoint Generic Routing Encapsulation (GRE) networks over the Internet (001). Both the NVL (003) and NAL (002) can be deployed using advanced unattended provisioning methodology.