Method for prioritization of internet traffic by finding appropriate internet exit points
The systems and methods discussed herein provide for faster communications, particularly for high priority traffic, across a distributed network with multiple exit points to a Wide Area Network. Rather than simply routing traffic based on internal or external destination, an intelligent router may measure latency to an endpoint destination via multiple paths, both external and internal, and direct traffic accordingly. Steering high priority traffic via the internal connection to an exit point near the destination server, and then to the server via the external network, may be faster than simply forwarding the connection via the external network from the exit point closest to the source device. Additionally, to reduce bandwidth requirements of the nearby exit point and provide capability for higher priority traffic, low priority traffic may be redirected back via the internal connection and transmitted via a distant exit point.
1. A system for routing traffic via a plurality of network interfaces, comprising:
a routing device comprising a plurality of network interfaces, a connection monitor, and a traffic router;
wherein a first network interface of the plurality of network interfaces is connected via a first network to a client device;
wherein a second network interface of the plurality of network interfaces is connected via a second network to a remote server;
wherein a third network interface of the plurality of network interfaces is connected via a third network to a remote routing device, the remote routing device in communication with the remote server via a fourth network;
wherein the connection monitor is configured to:
measure a first connection latency to the remote server via the second network, and a second connection latency to the remote server via the third network, the remote routing device, and the fourth network, and
monitor total utilization of the second network and fourth network and utilization of the second network and fourth network by high priority traffic; and
wherein the traffic router is configured to, responsive to the measured first connection latency and the second connection latency:
redirect high priority traffic to the remote server from the first network via the third network, responsive to the first connection latency exceeding the second connection latency, and
redirect low priority traffic received from the remote routing device via the third network to the second network, responsive to the utilization of the fourth network by high priority traffic exceeding a predetermined percentage of the total utilization of the fourth network.
2. The system of claim 1 , wherein the third network comprises a virtual private network.
3. The system of claim 1 , wherein the remote routing device is geographically closer to the remote server than the routing device.
4. The system of claim 1 , wherein the second network and the fourth network are the same network.
5. The system of claim 1 , wherein the first connection latency exceeds the second connection latency, and wherein the traffic router is configured to redirect the packet via the third network, the remote routing device configured to forward the packet to the remote server via the fourth network.
6. A method for routing traffic via a plurality of network interfaces, comprising:
measuring, by a connection monitor of a routing device in communication with a client device via a first network, a first connection latency to a remote server via a second network, and a second connection latency to the remote server via a third network and a remote routing device in communication with the remote server via a fourth network;
monitoring, by the connection monitor, total utilization of the second network and fourth network and utilization of the second network and fourth network by high priority traffic; and
redirecting, by the traffic router, high priority traffic to the remote server from the first network via the third network, responsive to the first connection latency exceeding the second connection latency, and
redirecting, by the traffic router, low priority traffic received from the remote routing device via the third network to the second network, responsive to the utilization of the fourth network by high priority traffic exceeding a predetermined percentage of the total utilization of the fourth network.
7. The method of claim 6 , wherein the third network comprises a virtual private network.
8. The method of claim 6 , wherein the remote routing device is geographically closer to the remote server than the routing device.
9. The method of claim 6 , wherein the second network and the fourth network are the same network.
10. The method of claim 6 , wherein the first connection latency exceeds the second connection latency, and further comprising redirecting, by the traffic router, the packet via the third network, the remote routing device configured to forward the packet to the remote server via the fourth network.
11. A system for routing traffic via a plurality of network interfaces, comprising:
a routing device comprising a plurality of network interfaces and a traffic router;
wherein a first network interface is connected via a first network to a server; and
wherein a second network interface is connected via a second network to a remote routing device, the remote routing device in communication with a remote client device;
wherein a third network interface is connected via a third network to a local client device;
wherein the traffic router is configured to redirect a packet from the remote client device, received via the second network from the remote routing device, to the server via the first network, responsive to the packet being received via the second network from the remote client device; and
wherein the traffic router is configured to redirect a packet from the local client device to the server via the second network and the remote routing device rather than via the first network responsive to the packet from the local client device being identified as a low priority packet and responsive to a utilization of the first network exceeding a threshold, the remote routing device forwarding the packet from the local client device to the server via a fourth network.
12. The system of claim 11 , wherein the second network comprises a virtual private network.
13. The system of claim 11 , wherein the routing device is geographically closer to the server than the remote routing device.
14. The system of claim 11 , wherein the first network and the fourth network are the same network.