Abstract: Methods and systems for providing quality of service over IP networks are disclosed. In one aspect, a flow label field of a header may be divided into first and second portions. The first portion defines a quality of service. The second portion identifies a message flow. Once the first portion defining the quality of service is established by the sending node, no nodes in the transmission path may change the quality of service value. Each node may route packets based on the quality of service field, or may modify the traffic class field of the header based on the quality of service and then route the packet based on the traffic class field. The QoS field can be used to complement a DSCP/traffic class field and provide a better mechanism for end-to-end QoS using IPv6. A service provider can use DSCP within its own administrative domain(s), and end users can set and maintain QoS using the methods described herein, thereby providing a framework for end-to-end QoS using IP packets.

Abstract: A node may generate a data packet comprising an Internet Protocol (IP) header and a destination options extension header (DOEH). The DOEH may comprise one or more data fields and an IP payload. The node may send the data packet to another node in a data network.

Abstract: A node may generate a data packet comprising an Internet Protocol (IP) header and a destination options extension header (DOEH). The DOEH may comprise one or more data fields and an IP payload. The node may send the data packet to another node in a data network.

Abstract: Methods and systems for providing quality of service over IP networks are disclosed. In one aspect, a flow label field of a header may be divided into first and second portions. The first portion defines a quality of service. The second portion identifies a message flow. Once the first portion defining the quality of service is established by the sending node, no nodes in the transmission path may change the quality of service value. Each node may route packets based on the quality of service field, or may modify the traffic class field of the header based on the quality of service and then route the packet based on the traffic class field. The QoS field can be used to complement a DSCP/traffic class field and provide a better mechanism for end-to-end QoS using IPv6. A service provider can use DSCP within its own administrative domain(s), and end users can set and maintain QoS using the methods described herein, thereby providing a framework for end-to-end QoS using IP packets.

Abstract: Methods, systems, and apparatuses are described for providing quality of service for data packets traversing networks. A header of a data packet may include various data fields. A node associated with the networks may route the data packet based on the various data fields in the header of the data packet to provide quality of service for the data packet.

Abstract: A node may generate a data packet comprising an Internet Protocol (IP) header and a destination options extension header (DOEH). The DOEH may comprise one or more data fields and an IP payload. The node may send the data packet to another node in a data network.

Abstract: Systems, methods, and devices of the various embodiments may enable geolocation information for a computing device to be indicated in Internet Protocol (IP) packets. Various embodiments may provide IP packets, such as IP version 6 (IPv6) packets, etc., including one or more location attributes in an IP packet header. For example, one or more location attributes may be included in a geolocation (GLO) option of a destination options header. In various embodiments, the one or more location attributes may include country indications, region indications, city indications, and/or postal code indications associated with a computing device that generated the IP packet.

Abstract: A node may generate a data packet comprising an Internet Protocol (IP) header and a destination options extension header (DOEH). The DOEH may comprise one or more data fields and an IP payload. The node may send the data packet to another node in a data network.

Abstract: Systems, methods, and devices of the various embodiments may enable geolocation information for a computing device to be indicated in Internet Protocol (IP) packets. Various embodiments may provide IP packets, such as IP version 6 (IPv6) packets, etc., including one or more location attributes in an IP packet header. For example, one or more location attributes may be included in a geolocation (GLO) option of a destination options header. In various embodiments, the one or more location attributes may include country indications, region indications, city indications, and/or postal code indications associated with a computing device that generated the IP packet.

Abstract: Methods and systems for performing load balancing and session persistence in IP (e.g., IPv6) networks are described herein. Some aspects relate to a destination options extension header that may be used to store load balancing session persistence option (LBSPO) data, including a client identifier and a server identifier for each of a client and a server. A load balancer for a server farm can perform session persistence and load balancing based on the LBSPO information. The server can include its own address in the LBSPO data when responding to an initial request from a client. The client device may then address subsequent packets to the server selected for that session, thereby bypassing the load balancer after the session is established, thereby freeing the load balancer to handle other requests. The LBSPO information may remain unchanged for the duration of the session.

Abstract: Systems, methods, architectures, mechanisms or apparatus for routing packets between source and destination endpoints associated with different autonomous systems without requiring public advertising of the addresses of the source and destination endpoints to other autonomous systems (ASN).

Abstract: A tool that may be used for querying and obtaining per-hop information along a network path, and/or for verifying the host name of each hop against a data repository such as the DNS. The query and response may be transmitted in, e.g., the destination options header of data packets, such as an IPv6 destination options header.

Abstract: A node may generate a data packet comprising an Internet Protocol (IP) header and a destination options extension header (DOEH). The DOEH may comprise one or more data fields and an IP payload. The node may send the data packet to another node in a data network.

Abstract: Methods and systems for providing quality of service over IP networks are disclosed. In one aspect, a flow label field of a header may be divided into first and second portions. The first portion defines a quality of service. The second portion identifies a message flow. Once the first portion defining the quality of service is established by the sending node, no nodes in the transmission path may change the quality of service value. Each node may route packets based on the quality of service field, or may modify the traffic class field of the header based on the quality of service and then route the packet based on the traffic class field. The QoS field can be used to complement a DSCP/traffic class field and provide a better mechanism for end-to-end QoS using IPv6. A service provider can use DSCP within its own administrative domain(s), and end users can set and maintain QoS using the methods described herein, thereby providing a framework for end-to-end QoS using IP packets.

Abstract: Systems, methods, architectures, mechanisms or apparatus for routing packets between source and destination endpoints associated with different autonomous systems without requiring public advertising of the addresses of the source and destination endpoints to other autonomous systems (ASN).

Abstract: A node may generate a data packet comprising an Internet Protocol (IP) header and a destination options extension header (DOEH). The DOEH may comprise one or more data fields and an IP payload. The node may send the data packet to another node in a data network.

Abstract: A tool that may be used for querying and obtaining per-hop information along a network path, and/or for verifying the host name of each hop against a data repository such as the DNS. The query and response may be transmitted in, e.g., the destination options header of data packets, such as an IPv6 destination options header.

Abstract: Methods and systems for performing load balancing and session persistence in IP (e.g., IPv6) networks are described herein. Some aspects relate to a destination options extension header that may be used to store load balancing session persistence option (LBSPO) data, including a client identifier and a server identifier for each of a client and a server. A load balancer for a server farm can perform session persistence and load balancing based on the LBSPO information. The server can include its own address in the LBSPO data when responding to an initial request from a client. The client device may then address subsequent packets to the server selected for that session, thereby bypassing the load balancer after the session is established, thereby freeing the load balancer to handle other requests. The LBSPO information may remain unchanged for the duration of the session.

Abstract: Methods and systems for providing quality of service over IP networks are disclosed. In one aspect, a flow label field of a header may be divided into first and second portions. The first portion defines a quality of service. The second portion identifies a message flow. Once the first portion defining the quality of service is established by the sending node, no nodes in the transmission path may change the quality of service value. Each node may route packets based on the quality of service field, or may modify the traffic class field of the header based on the quality of service and then route the packet based on the traffic class field. The QoS field can be used to complement a DSCP/traffic class field and provide a better mechanism for end-to-end QoS using IPv6. A service provider can use DSCP within its own administrative domain(s), and end users can set and maintain QoS using the methods described herein, thereby providing a framework for end-to-end QoS using IP packets.