Abstract: In one embodiment, a method includes receiving at a first network device in a first virtual private network, a packet destined for a second network device in communication with a second virtual private network, and transmitting the packet over the second network, wherein the packet is encapsulated for transmittal on a tunnel extending from the first network device to the second network device. The first network device is in communication with a system operable to map and encapsulate the packet and provide an overlay that traverses over the second virtual private network. An apparatus and logic are also disclosed herein.

Abstract: In one embodiment, a method includes receiving at a first network device in a first virtual private network, a packet destined for a second network device in communication with a second virtual private network, and transmitting the packet over the second network, wherein the packet is encapsulated for transmittal on a tunnel extending from the first network device to the second network device. The first network device is in communication with a system operable to map and encapsulate the packet and provide an overlay that traverses over the second virtual private network. An apparatus and logic are also disclosed herein.

Abstract: In one embodiment, a method includes receiving at a first network device in a first virtual private network, a packet destined for a second network device in communication with a second virtual private network, and transmitting the packet over the second network, wherein the packet is encapsulated for transmittal on a tunnel extending from the first network device to the second network device. The first network device is in communication with a system operable to map and encapsulate the packet and provide an overlay that traverses over the second virtual private network. An apparatus and logic are also disclosed herein.

Abstract: In one embodiment, a method includes receiving a packet at a first provider edge device in communication with a mapping system comprising mappings of customer routes to provider edge devices, and mappings of customer virtual routing and forwarding (VRF) instances to a service provider VRF instance, mapping a customer route to one of the provider edge devices and mapping a customer VRF instance to the service provider VRF instance, encapsulating the packet at the first provider edge device based on the mappings, and transmitting the packet to the provider edge device. An apparatus and logic are also disclosed herein.

Abstract: In one embodiment, a method includes receiving from a plurality of customer edge devices, endpoint addresses at a central mapping system operating as a control plane for a provider network in communication with a plurality of customer networks, and mapping the endpoint addresses to provider edge devices in the provider network. Wherein the customer edge devices store customer endpoint routes for active flows and the provider edge devices store customer edge device site locator addresses for use in a mapping and encapsulation overlay in the provider network. An apparatus and logic are also disclosed herein.

Abstract: Techniques for configuring customer premises equipment for communication with a provider network include establishing a physical layer network connection between a particular customer node and a first provider node. The particular customer node is an intermediate network node on a customer premises. The first provider node is an intermediate network node on a first provider network of a first service provider different from the customer. Configuration data for one or more network interfaces on the particular customer node are automatically received through the physical layer network connection. The particular customer node is automatically configured based on that configuration data. The automatic provisioning of the customer node allows equipment to be more economically shipped and installed at customer premises and allows upgraded or replacement equipment to be more economically swapped in place of equipment previously installed.

Abstract: Techniques for configuring customer premises equipment for communication with a provider network include establishing a physical layer network connection between a particular customer node and a first provider node. The particular customer node is an intermediate network node on a customer premises. The first provider node is an intermediate network node on a first provider network of a first service provider different from the customer. Configuration data for one or more network interfaces on the particular customer node are automatically received through the physical layer network connection. The particular customer node is automatically configured based on that configuration data. The automatic provisioning of the customer node allows equipment to be more economically shipped and installed at customer premises and allows upgraded or replacement equipment to be more economically swapped in place of equipment previously installed.

Abstract: A method of hole defect repair includes removing one or more defects at or near a desired hole shape in a substrate by removing a non-concentric portion of the substrate proximate the desired hole shape, and welding a filler material to the substrate after removing the non-concentric portion of the substrate.

Abstract: An MPLS router operable for labeled switch path (LSP) operation defines a compression index for identifying a decompression context between other MPLS LSP routers. The compression index allows a multipoint-to-point link between MPLS routers, thereby avoiding an exhaustive mesh of point-to-point links between each of the MPLS routers. The originator ID identifies each of the multipoint originating endpoints at a common destination, and maintains the context of each compressed header to match incoming compressed headers to the corresponding header values. The originator ID, typically the IP address of the originator, operates as the compression index on the multipoint-to-point connection, operable to distinguish multiple originators of the multipoint-to-point connection and provide header compression for each.

Abstract: A method, apparatus and computer program product for providing secure multipoint Internet Protocol Virtual Private Networks (IPVPNs) is presented. A packet lookup is performed in order to determine a next hop. A VPN label is pushed on the packet, as is an IP tunnel header. Group encryption through the use of DGVPN is further utilized. In such a manner secure connectivity and network partitioning are provided in a single solution.