Abstract: A broadband network gateway (BNG) in a wireline network. The BNG includes an interworking function in a control plane (IF-CP), the IF-CP configured to use a control plane interface (N1?/N2?) between the BNG in the wireline network and a fifth generation (5G) core in a 5G network to couple a control plane of the BNG to a control plane of the 5G core; an interworking function in a user plane (IF-UP), the IF-UP configured to use a user plane interface (N3?) between the BNG in the wireline network and the 5G core in the 5G network to couple a user plane of the BNG to a user plane of the 5G core; and a transmitter configured to transmit data packets toward the 5G core after the user plane of the BNG and the user plane of the 5G core have been coupled.

Abstract: A broadband network gateway (BNG) in a wireline network. The BNG includes an interworking function in a control plane (IF-CP), the IF-CP configured to use a control plane interface (N1?/N2?) between the BNG in the wireline network and a fifth generation (5G) core in a 5G network to couple a control plane of the BNG to a control plane of the 5G core; an interworking function in a user plane (IF-UP), the IF-UP configured to use a user plane interface (N3?) between the BNG in the wireline network and the 5G core in the 5G network to couple a user plane of the BNG to a user plane of the 5G core; and a transmitter configured to transmit data packets toward the 5G core after the user plane of the BNG and the user plane of the 5G core have been coupled.

Abstract: A network coordinator device comprises a processor, a memory, a first port to operatively couple the processor to first network that uses media access control (MAC) addresses of a first size, and a second port to operatively couple the processor to second network that uses MAC addresses of a second size. The processor is configured to perform a network bridging protocol to bridge data frames communicated between the first network and the second network, including to translate communications between a device of the first network having the first size MAC address and a device of the second network having the second size MAC address, and adapt a frame format of the first network protocol to a frame format of the second network protocol. The adapting the frame formatting includes fragmenting data frames of the first network protocol when needed using a fragmentation format of the second network protocol.

Abstract: A broadband network gateway (BNG) in a wireline network. The BNG includes an interworking function in a control plane (IF-CP), the IF-CP configured to use a control plane interface (N1?/N2?) between the BNG in the wireline network and a fifth generation (5G) core in a 5G network to couple a control plane of the BNG to a control plane of the 5G core; an interworking function in a user plane (IF-UP), the IF-UP configured to use a user plane interface (N3?) between the BNG in the wireline network and the 5G core in the 5G network to couple a user plane of the BNG to a user plane of the 5G core; and a transmitter configured to transmit data packets toward the 5G core after the user plane of the BNG and the user plane of the 5G core have been coupled.

Abstract: A broadband network gateway (BNG) in a wireline network. The BNG includes an interworking function in a control plane (IF-CP), the IF-CP configured to use a control plane interface (N1?/N2?) between the BNG in the wireline network and a fifth generation (5G) core in a 5G network to couple a control plane of the BNG to a control plane of the 5G core; an interworking function in a user plane (IF-UP), the IF-UP configured to use a user plane interface (N3?) between the BNG in the wireline network and the 5G core in the 5G network to couple a user plane of the BNG to a user plane of the 5G core; and a transmitter configured to transmit data packets toward the 5G core after the user plane of the BNG and the user plane of the 5G core have been coupled.

Abstract: A broadband network gateway (BNG) in a wireline network. The BNG includes an interworking function in a control plane (IF-CP), the IF-CP configured to use a control plane interface (N1?/N2?) between the BNG in the wireline network and a fifth generation (5G) core in a 5G network to couple a control plane of the BNG to a control plane of the 5G core; an interworking function in a user plane (IF-UP), the IF-UP configured to use a user plane interface (N3?) between the BNG in the wireline network and the 5G core in the 5G network to couple a user plane of the BNG to a user plane of the 5G core; and a transmitter configured to transmit data packets toward the 5G core after the user plane of the BNG and the user plane of the 5G core have been coupled.

Abstract: A network coordinator device comprises a processor, a memory, a first port to operatively couple the processor to first network that uses media access control (MAC) addresses of a first size, and a second port to operatively couple the processor to second network that uses MAC addresses of a second size. The processor is configured to perform a network bridging protocol to bridge data frames communicated between the first network and the second network, including to translate communications between a device of the first network having the first size MAC address and a device of the second network having the second size MAC address, and adapt a frame format of the first network protocol to a frame format of the second network protocol. The adapting the frame formatting includes fragmenting data frames of the first network protocol when needed using a fragmentation format of the second network protocol.

Abstract: A Hybrid Access (HYA) network for communicating between a Hybrid Access Gateway (HAG) and a Hybrid Access Customer Premises Equipment (HCPE) using a fixed wired connection and a wireless connection is presented. The HAG demultiplexes messages of bonded Generic Routing Encapsulation (GRE) tunnels using a bonding key value, which is provided to the HCPE during bonded tunnel establishment. Communications through the bonded tunnels insert at least a portion of the bonding key value in a GRE Header, using the different bonding key values for the fixed wired connection and the corresponding wireless connection. The HAG groups messages from multiple connections of multiple HCPEs using the bonding key value in the GRE Header.

Abstract: A first node implemented in a hybrid access network is provided. The first node comprises a receiver configured to receive instructions to implement flow-based distribution, a processor coupled to the receiver and configured to generate a first control message instructing the flow-based distribution, and a transmitter coupled to the processor and configured to transmit the first control message to a second node in the hybrid access network.

Abstract: A network component is provided. The network component is configured to receive a handover context from a first access network device. The network component is capable of sending a first proxy binding update message to a second access network device to initiate a proxy care-of test; receiving a care-of keygen token from the second access network device in response to the first proxy binding update. The network component is configured to send a second proxy binding update message in response to the care-of keygen token to the second access network device to initiate a complete proxy binding update exchange. The network component is configured to receive a proxy binding acknowledge (PBA) message from the second access network device to establish a direct route between the network component and the second access network device.

Abstract: A network element (NE) comprising a processor configured to cause the NE to act as a default router for an Internet Group Management Protocol (IGMP) to Multicast Listener Discovery (MLD) translation entity, and configure the IGMP to MLD translation entity with a multicast translation prefix by including the multicast translation prefix in a router advertisement (RA) message sent to the IGMP to MLD translation entity. Also disclosed is a method comprising configuring an IGMP to MLD translation entity by transmitting a RA message to the IGMP to MLD translation entity, wherein the RA message comprises at least one multicast translation prefix.

Abstract: A network element (NE) comprising a processor configured to receive a Router Solicitation (RS) from a multi-homed host interested in obtaining routing information, and in response to the RS, send the route information to the multi-homed host in a Router Advertisement (RA) message, wherein the route information comprises source address information for the multi-homed host. Also disclosed is a NE comprising a processor configured to receive a RS from a multi-homed host interested in obtaining routing information, and in response to the RS, send the route information to the multi-homed host in a RA message, wherein the route information comprises next hop information for the multi-homed host.

Abstract: Included is an Internet Protocol (IP) version four (IPv4) Residual Deployment via IP version six (IPv6) (4rd) customer edge (CE) comprising a transceiver configured to communicate with an IPv6 network, and a processor coupled to the transceiver and configured to receive multicast packets from a multicast source via the IPv6 network, and transmit the multicast packets to a host. The disclosure also includes a 4rd border relay (BR) comprising a transceiver configured to communicate with an IPv6 network, and a processor coupled to the transceiver and configured to receive multicast packets from a multicast source, and transmit the multicast packets to a host via the IPv6 network and a 4rd customer edge (CE).

Abstract: A computer program product implemented in an Internet Protocol (IP) edge node positioned in a fixed access network, the computer program product comprising computer executable instructions stored on a non-transitory computer readable medium such that when executed by a processor cause the IP edge node to receive an address registration request from a residential gateway (RG), wherein the address registration request comprises an IP version six (IPv6) address of a third Generation Partnership Project (3GPP) visiting mobile host connected to a local fixed network associated with the RG and a host identifier (ID) assigned to the visiting host and not to any other host in the local fixed network; establish an IP Connectivity Access Network (IP-CAN) session for the visiting host; and manage quality of service (QoS) for the visiting host independently of other hosts in the local fixed network by managing the visiting host IP-CAN session.

Abstract: A method and apparatus for home agent redirect is provided. A method for redirecting a device from a first home agent to a second home agent includes sending a first message to the first home agent, receiving a second message from the first home agent, and sending a third message to the second home agent. The first message includes a binding update, and the second message includes a binding acknowledgement and a redirect indication that the device is being redirected to the second home agent. The third message includes a binding update, and an address of the first home agent.

Abstract: An apparatus comprising a Local Mobility Anchor (LMA) configured to couple to a mobile node (MN), a network address translation (NAT) server, and an Internet Protocol (IP) version four (IPv4) only host and to associate an IP version six (IPv6) address for an interface with the MN with an IPv4 address for an interface with the IPv4 only host in a NAT state table entry, wherein the NAT state table entry is used to translate an IPv6 packet associated with the MN to an IPv4 packet associated with the IPv4 only host.

Abstract: A network element (NE) comprising a hypervisor configured to receive a first virtual machine (VM) from a source hypervisor, and send a first VM mobility registration request to a management node, wherein the first VM mobility registration request comprises a VM identifier associated with the first VM and an internet protocol (IP) address associated with the hypervisor. Also disclosed is a management node comprising a binding cache, and a processor, wherein the processor is configured to receive a first VM mobility registration request from a first hypervisor, wherein the first VM mobility registration is associated with a VM, and record VM information from the first VM mobility registration request in an entry of the binding cache.

Abstract: An apparatus comprising a mobile access gateway (MAG) configured to register an Internet Protocol (IP) address for a mobile node (MN) with a local mobility anchor (LMA) to allow proxy mobile IP version 6 (PMIPv6) mobility management for the MN, wherein the MAG communicates a query message that comprises a PMIPv6 service name to a Domain Name Service (DNS) and obtains the IP address of the LMA from the DNS. Also disclosed is a network component comprising at least one processor coupled to a memory and configured to send a DNS query for a plurality of Service Resource Records (SRV RRs), and receive a DNS reply that comprises a plurality of Fully Qualified Domain Names (FQDNs) for a plurality of LMAs, wherein the DNS query comprises a Proxy Mobile Internet Protocol version 6 (PMIPv6) service name, a protocol name, and a domain name.

Abstract: An apparatus comprising a home agent (HA) configured to initiate a flow binding operation for a mobile node (MN) by sending a first message to the MN and receiving a second message from the MN, wherein the first message indicates the flow binding operation to the MN, and wherein the MN returns the second message to the HA in response to the first message. Also disclosed is a network component comprising at least one processor configured to implement a method comprising receiving a first message from a HA to initiate a flow binding operation for a flow, and sending a second message to the HA. Included is a method comprising transmitting to a MN a flow binding message to perform a flow binding action for the MN.

Abstract: Included is an Internet Protocol (IP) version four (IPv4) Residual Deployment via IP version six (IPv6) (4rd) customer edge (CE) comprising a transceiver configured to communicate with an IPv6 network, and a processor coupled to the transceiver and configured to receive multicast packets from a multicast source via the IPv6 network, and transmit the multicast packets to a host. The disclosure also includes a 4rd border relay (BR) comprising a transceiver configured to communicate with an IPv6 network, and a processor coupled to the transceiver and configured to receive multicast packets from a multicast source, and transmit the multicast packets to a host via the IPv6 network and a 4rd customer edge (CE).