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    • 2. 发明申请
    • DYNAMIC DISTRIBUTION OF TARGET SELECTION ALGORITHMS
    • 目标选择算法的动态分配
    • WO2012127449A3
    • 2012-11-22
    • PCT/IB2012051387
    • 2012-03-22
    • ERICSSON TELEFON AB L MMALOY JONANDERSSON PER
    • MALOY JONANDERSSON PER
    • H04L29/08H04L29/12
    • H04L61/1541H04L67/1002H04L67/1025H04L67/1038H04L67/28H04L67/2809H04L67/289H04L67/34
    • Methods of distributing a selection algorithm (X) that selects a target server component (A) from among a plurality of server components (A, B) having a same functionality type (1) include receiving notifications (30, 32) from the plurality of server components (A, B) indicating addresses (A_ Addr, B_ Addr) at which the plurality of server components (A, B) can be contacted, receiving (30, 32) a selection algorithm (X) that is to be used by a client component (D) for selecting the target server component (A) from among the plurality of server components (A, B), and associating the selection algorithm (X) with the functionality type (1). The methods may further include receiving a message (36) from the client component (D) requesting addresses (A_ Addr, B_ Addr) of server components (A, B) having the functionality type (1), sending (38) the addresses (A_ Addr, B_ Addr) of the plurality of server components (A, B) to the client component (D), and sending (38) the selection algorithm (X) to the client component (D).
    • 从具有相同功能类型(1)的多个服务器组件(A,B)中分发选择目标服务器组件(A)的选择算法(X)的方法包括从多个 指示可以与多个服务器组件(A,B)接触的地址(A_ Addr,B_Adrr)的服务器组件(A,B),接收(30,32)将被使用的选择算法(X) 用于从所述多个服务器组件(A,B)中选择所述目标服务器组件(A)并且将所述选择算法(X)与所述功能类型(1)相关联的客户端组件(D)。 所述方法还可以包括从客户端组件(D)接收请求具有功能类型(1)的服务器组件(A,B)的地址(A_ Addr,B_Adrr)的消息(36),发送(38)地址 (A,B)的多个服务器组件(A,B)的A_ Addr,B_ Addr)发送给客户端组件(D)(38)。
    • 6. 发明专利
    • DE60137782D1
    • 2009-04-09
    • DE60137782
    • 2001-09-26
    • ERICSSON TELEFON AB L M
    • BELIVEAU ANDREANDERSSON PERFRANZEN ANDERSHENNERT LARS
    • G06F13/00H04L29/06H04L12/56H04L29/08H04L29/12
    • An interfacing method and Virtual Internet Protocol (VIP) Framework that provides high fault tolerance and linear scalability of servers and network interfaces. The Framework has minimal impact on the surrounding network infrastructure. The preferred embodiment operates at the IP level, thus enabling the Framework to operate with any application that runs on top of IP. Incoming data packets and packet fragments are received from the Internet in a plurality of network terminations. Routing processes provide external routers with addresses of the network terminations. Each network termination is associated with one of a plurality of forwarding processes, and each forwarding process is connected to a plurality of fragmenter/de-fragmenters. Each forwarding process selects a single fragmenter/de-fragmenter to receive all of the incoming data packets and packet fragments having a common source address. The incoming packets and packet fragments are then sent to the selected fragmenter/de-fragmenter where they are reassembled if necessary. The selected fragmenter/de-fragmenter identifies a valid application server and sends the reassembled incoming data packets to the identified server. Servers with outgoing messages select a fragmenter/de-fragmenter which fragments the data packets if required, and uses the routing process to select a forwarding process to route the packets and fragments to a network termination and the Internet.
    • 7. 发明专利
    • AT424081T
    • 2009-03-15
    • AT01975898
    • 2001-09-26
    • ERICSSON TELEFON AB L M
    • BELIVEAU ANDREANDERSSON PERFRANZEN ANDERSHENNERT LARS
    • G06F13/00H04L29/06H04L12/56H04L29/08H04L29/12
    • An interfacing method and Virtual Internet Protocol (VIP) Framework that provides high fault tolerance and linear scalability of servers and network interfaces. The Framework has minimal impact on the surrounding network infrastructure. The preferred embodiment operates at the IP level, thus enabling the Framework to operate with any application that runs on top of IP. Incoming data packets and packet fragments are received from the Internet in a plurality of network terminations. Routing processes provide external routers with addresses of the network terminations. Each network termination is associated with one of a plurality of forwarding processes, and each forwarding process is connected to a plurality of fragmenter/de-fragmenters. Each forwarding process selects a single fragmenter/de-fragmenter to receive all of the incoming data packets and packet fragments having a common source address. The incoming packets and packet fragments are then sent to the selected fragmenter/de-fragmenter where they are reassembled if necessary. The selected fragmenter/de-fragmenter identifies a valid application server and sends the reassembled incoming data packets to the identified server. Servers with outgoing messages select a fragmenter/de-fragmenter which fragments the data packets if required, and uses the routing process to select a forwarding process to route the packets and fragments to a network termination and the Internet.
    • 8. 发明专利
    • Virtual ip framework and interfacing method
    • AU9530901A
    • 2002-04-08
    • AU9530901
    • 2001-09-26
    • ERICSSON TELEFON AB L M
    • BELIVEAU ANDREANDERSSON PERFRANZEN ANDERSHENNERT LARS
    • G06F13/00H04L12/56H04L29/06H04L29/08H04L29/12H04L29/00
    • An interfacing method and Virtual Internet Protocol (VIP) Framework that provides high fault tolerance and linear scalability of servers and network interfaces. The Framework has minimal impact on the surrounding network infrastructure. The preferred embodiment operates at the IP level, thus enabling the Framework to operate with any application that runs on top of IP. Incoming data packets and packet fragments are received from the Internet in a plurality of network terminations. Routing processes provide external routers with addresses of the network terminations. Each network termination is associated with one of a plurality of forwarding processes, and each forwarding process is connected to a plurality of fragmenter/de-fragmenters. Each forwarding process selects a single fragmenter/de-fragmenter to receive all of the incoming data packets and packet fragments having a common source address. The incoming packets and packet fragments are then sent to the selected fragmenter/de-fragmenter where they are reassembled if necessary. The selected fragmenter/de-fragmenter identifies a valid application server and sends the reassembled incoming data packets to the identified server. Servers with outgoing messages select a fragmenter/de-fragmenter which fragments the data packets if required, and uses the routing process to select a forwarding process to route the packets and fragments to a network termination and the Internet.