Abstract: A method is provided in one example embodiment and may include sharing an access key from a control-plane serving gateway (SGW-C) to a plurality of user-plane serving gateways (SGW-Us); allocating a plurality of Fully Qualified Tunnel Endpoint Identifiers (FQTEIDs) associated with a user equipment (UE) session; generating an access token for the UE session based, at least in part, on the access key and the plurality of FQTEIDs; and appending the access token to user-plane packets for the UE session. The method can further include receiving a data packet for the UE session by a particular SGW-U, wherein the uplink packet is appended with the access token for the UE session; determining FQTEIDs associated with the UAT; and routing the uplink packet from the particular SGW-U based on the FQTEIDs.

Abstract: A method is provided in one example embodiment and may include sharing an access key from a control-plane serving gateway (SGW-C) to a plurality of user-plane serving gateways (SGW-Us); allocating a plurality of Fully Qualified Tunnel Endpoint Identifiers (FQTEIDs) associated with a user equipment (UE) session; generating an access token for the UE session based, at least in part, on the access key and the plurality of FQTEIDs; and appending the access token to user-plane packets for the UE session. The method can further include receiving a data packet for the UE session by a particular SGW-U, wherein the uplink packet is appended with the access token for the UE session; determining FQTEIDs associated with the UAT; and routing the uplink packet from the particular SGW-U based on the FQTEIDs.

Abstract: An example method is provided and includes receiving a request from a mobile node for an Internet protocol (IP) address and establishing a point-to-point (PPP) link for the mobile node. The method also includes provisioning a first tunnel associated with a first communication flow for the mobile node, and provisioning a sub-tunnel with the first tunnel for a second communication flow. The second communication flow is associated with a high priority type of data to be transported on the sub-tunnel. In more specific embodiments, a call admission control (CAC) mechanism is used to establish the sub-tunnel with the first tunnel for the second communication flow. Additionally, an inner label is installed in a header of a packet associated with the second communication flow in order to identify the sub-tunnel.

Abstract: An example method is provided and includes establishing a session for a mobile node, and evaluating a plurality of label switched paths (LSPs) in response to the mobile node experiencing a handoff between a source packet data serving node (SPDSN) and a target PDSN (TPDSN). The method can also include provisioning a sub-tunnel with a first tunnel, which is associated with a selected label switched path. The selected label switched path is associated with a high priority type of data having a low latency characteristic.

Abstract: An example method is provided and includes receiving a request from a mobile node for an Internet protocol (IP) address and establishing a point-to-point (PPP) link for the mobile node. The method also includes provisioning a first tunnel associated with a first communication flow for the mobile node, and provisioning a sub-tunnel with the first tunnel for a second communication flow. The second communication flow is associated with a high priority type of data to be transported on the sub-tunnel. In more specific embodiments, a call admission control (CAC) mechanism is used to establish the sub-tunnel with the first tunnel for the second communication flow. Additionally, an inner label is installed in a header of a packet associated with the second communication flow in order to identify the sub-tunnel.

Abstract: An example method is provided and includes receiving a request from a mobile node for an Internet protocol (IP) address and establishing a point-to-point (PPP) link for the mobile node. The method also includes provisioning a first tunnel associated with a first communication flow for the mobile node, and provisioning a sub-tunnel with the first tunnel for a second communication flow. The second communication flow is associated with a high priority type of data to be transported on the sub-tunnel. In more specific embodiments, a call admission control (CAC) mechanism is used to establish the sub-tunnel with the first tunnel for the second communication flow. Additionally, an inner label is installed in a header of a packet associated with the second communication flow in order to identify the sub-tunnel.

Abstract: An example method is provided and includes establishing a session for a mobile node, and evaluating a plurality of label switched paths (LSPs) in response to the mobile node experiencing a handoff between a source packet data serving node (SPDSN) and a target PDSN (TPDSN). The method can also include provisioning a sub-tunnel with a first tunnel, which is associated with a selected label switched path. The selected label switched path is associated with a high priority type of data having a low latency characteristic.

Abstract: An example method is provided and includes receiving a request from a mobile node for an Internet protocol (IP) address and establishing a point-to-point (PPP) link for the mobile node. The method also includes provisioning a first tunnel associated with a first communication flow for the mobile node, and provisioning a sub-tunnel with the first tunnel for a second communication flow. The second communication flow is associated with a high priority type of data to be transported on the sub-tunnel. In more specific embodiments, a call admission control (CAC) mechanism is used to establish the sub-tunnel with the first tunnel for the second communication flow. Additionally, an inner label is installed in a header of a packet associated with the second communication flow in order to identify the sub-tunnel.