ccna wireless dumps 200-355

ccna wireless dumps 200-355

Image Ip address 4.4.4.4 255.255.255.255 Offset-list { access–list-number | name } {in|out} offset [ interface-type interface-number ] ! Now, we have to go through the calculations to get a summary of the segments that are just "inclusive". Image Ipv6 unicast-routing Interface serial0/0 How does the prefix announcement work? Valid lifetime ( ! Valid Lifetime ) Ipv6 address 2001:5555::5/128 interface FastEthernet0/0 Neighbor FE80::CE02:8FF:FED8:0 update-source FastEthernet1/0 Image A few notes: IPv4- compatible addresses are used for transition mechanisms such as automatic ipv4- compatible tunneling and NAT-PT (see the IPv6 Transition Technology section of this document for details). Used by IPv6 nodes to send messages to themselves. Complete the basic interface IP configuration . Add the following configuration on R2 : After completion, both OR1 and OR2 can learn the loopback interface route of the other party , but they cannot ping . View the routing table of OR1 : Ipv6 address 2001::1/128 11 Ipv6 address 2004::4/64 Static route associated with the outbound interface ! Each routing table entry must include at least the following three items: Loopback address Vif PGM Multicast Host interface R2#show ipv6 interface brief 0/0/0 6 Associate the static route of the next hop 2 : link local range; eg FF02::1 indicates all nodes on the link; FF02::9 : indicates all RIP routers on the link After the route-map is called, the matching action will be executed from the smallest sequence number. If the conditions in the sequence number are matched, the set command is executed . If the conditions do not match, the switch to the next sequence number is continued. Match the action. Tunnel source serial 0/0 tunnel destination 10.1.23.3 Network An IPv6 unicast address corresponds to a Solicited-node address. The valid range of the Solicited-node address is the local link range. Offset-list { access–list-number | name } {in|out} offset [ interface-type interface-number ] RIP database Cancel the verification of IP Use this command to view the router IPv6 routing table. Y 0.0.0.0 . Ip route 0.0.0.0 0.0.0.0 10.1.12.2 !! ipv4 routing, so that the route can access the tunnel destination , which is 10.1.23.3 R1 will first look up the AAA record through the IPv4 network , and then go to the AAAA record through the IPv6 network , and find that there is no response, then use the IPv4 network to find the A record, no response, and use the IPv6 network to find an A record. IPv4 !! Match the exit of the packet R1 and R2 are dual-stack routers. The configuration of R1 is as follows ( the configuration of interface IP is omitted ): Command Command summary Default route In the Probe state, every unicast NS is sent every RetransTime ( r default 1S ) , and MAX_Unicast_Solicit is sent before waiting for RetransTimer . Image Segment header Fragment Header (Protocol 44 ) 2.0 and 3.0 . Now we can by R2 deployment of a distribution list on the distribute-List , so that R2 update to R1 filter out routing information in ALG and IPV4 single protocol network host B maintain an IPV4 session. ALG is responsible for session conversion between IPV4 and IPV6 . This ALG has dual stack support capabilities. For example, suppose ALG is a dual stack and can act as a server for SMTP ALG . Then A can be based on IPV6 of ! PE1#show bgp vpnv6 unicast all 2001:5555::5/128 Increase flow label Default router information Interface FastEthernet0/0 ipv6 enable The default keyword has a lower priority than the detail route. 192.168.1.0/24 , RIP only declared the direct link (without having to declare that in the process the Loopback ), the R1 on ip defaut-network Ip route 10.1.12.0 255.255.255.0 10.1.1.2 NSAP Run OSPFv3 as shown Experimental steps and configuration Adjust the parameters of the NDP message Note that at this time, in the routing table of R2 , the 3.0 route is killed. Note that,ccna wireless dumps 200-355, in fact this time, Area within OSPF routers generated LSA has been loaded into the R2 of the OSPF Database alone rather than in R2 from the OSPF Database calculated route and prepares route entry is loaded into the routing table before, in the distribution direction play a role in the list, the 3.0 routes filtered out, so R2 routing table, there is no 3.0 the OSPF routing. However, although there is no 3.0 route in R2's own routing table , this does not prevent R2 from flooding the relevant LSA to R3 . Therefore, R3 still has 1.0 , 2.0 ,3.0 and 12.0 of the OSPF routing.