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    • 1. 发明授权
    • Weighted equal-cost multipath
    • 加权等价多路径
    • US08787400B1
    • 2014-07-22
    • US13536669
    • 2012-06-28
    • Colby BarthKireeti KompellaDavid WardJoel ObstfeldHannes GredlerJohn E. Drake
    • Colby BarthKireeti KompellaDavid WardJoel ObstfeldHannes GredlerJohn E. Drake
    • H04L12/56
    • H04L45/24H04L45/125
    • Routers balance network traffic among multiple paths through a network according to an amount of bandwidth that can be sent on an outgoing interface computed for each of the paths. For example, a router receives a link bandwidth for network links that are positioned between the first router and a second router of the network, and selects a plurality of forwarding paths from the first router to the second router. Upon determining that one of the network links is shared by multiple of the plurality of forwarding paths, the router computes a path bandwidth for each of the plurality of outgoing interfaces so as to account for splitting of link bandwidth of the shared network link across the multiple forwarding paths that share the network link. The router assigns packet flows to the forwarding paths based at least on the computed amount of bandwidth for each of the outgoing interfaces.
    • 路由器根据可以在为每个路径计算的出站接口上发送的带宽量,通过网络平衡多个路径之间的网络流量。 例如,路由器接收位于第一路由器和网络的第二路由器之间的网络链路的链路带宽,并且从第一路由器到第二路由器选择多条转发路径。 在确定所述网络链路中的一个由所述多个转发路径中的多个转发路径共享时,所述路由器计算所述多个输出接口中的每一个的路径带宽,以便考虑所述共享网络链路在所述多个转发路径中的链路带宽的分割 共享网络链路的转发路径。 路由器至少基于计算出的每个输出接口的带宽量将分组流分配给转发路径。
    • 6. 发明申请
    • COMPOSITE NEXT HOPS FOR FORWARDING DATA IN A NETWORK SWITCHING DEVICE
    • 用于在网络切换设备中转发数据的复合下一个HOPS
    • US20110110373A1
    • 2011-05-12
    • US13009367
    • 2011-01-19
    • Kaushik GHOSHKireeti KOMPELLA
    • Kaushik GHOSHKireeti KOMPELLA
    • H04L12/56
    • H04L45/02H04L45/025
    • A network device includes a memory, a routing engine and a forwarding engine. The memory stores a forwarding table and the routing engine constructs a first composite next hop that includes multiple next hops, where each of the multiple next hops represents an action to be taken on a data unit as it transits the network device or represents another composite next hop, and where the first composite next hop specifies a function to be performed on the plurality of next hops. The routing engine further stores the composite next hop in an entry of the forwarding table. The forwarding engine retrieves the composite next hop from the forwarding table, and forwards a data unit towards one or more network destinations based on the composite next hop.
    • 网络设备包括存储器,路由引擎和转发引擎。 存储器存储转发表,并且路由引擎构建包括多个下一跳的第一复合下一跳,其中多个下一跳中的每一个表示当数据单元在网络设备上运行时或在代表另一个复合的数据单元上采取的动作 并且第一复合下一跳指定要对多个下一跳执行的功能。 路由引擎还将复合下一跳存储在转发表的条目中。 转发引擎从转发表中检索复合下一跳,并且基于复合下一跳将数据单元转发到一个或多个网络目的地。
    • 8. 发明授权
    • Verification of network paths using two or more connectivity protocols
    • 使用两个或多个连接协议验证网络路径
    • US07852778B1
    • 2010-12-14
    • US11525685
    • 2006-09-22
    • Kireeti Kompella
    • Kireeti Kompella
    • H04J1/16
    • H04L45/70H04L43/0811H04L43/10H04L45/50
    • Techniques are described for verifying a status of a set of paths through a computer network for two or more connectivity protocols. For example, a node uses a first connectivity protocol to concurrently learn information that will cause packets conforming to the first connectivity protocol and packet conforming to a second connectivity protocol to traverse a set of paths through a computer network. After learning this information, the node may verify a status of each of the paths using the first connectivity protocol. In addition, the node may verify a status of each of the paths using the second connectivity protocol. By verifying the status of the paths using both the first and the second connectivity protocols, the node may be able to quickly and accurately determine whether a path has failed.
    • 描述了用于验证用于两个或多个连接协议的计算机网络的一组路径的状态的技术。 例如,节点使用第一连接协议来同时学习将导致符合第一连接性协议的分组的信息和符合第二连接性协议的分组遍历通过计算机网络的一组路径的信息。 在学习该信息之后,节点可以使用第一连接协议来验证每个路径的状态。 此外,节点可以使用第二连接协议来验证每个路径的状态。 通过使用第一和第二连接协议来验证路径的状态,节点可能能够快速且准确地确定路径是否已经失败。