kts 0 in DE pkts 0 out DE pkts 0 out bcast pkts 0 out bcast bytes 0 switched pkts 0 Detailed packet drop counters: no out intf 0 out intf down 0 no out PVC 0 in PVC down 0 out PVC down 0 pkt too big 0 shaping Q full 0 pkt above DE 0 policing drop 0 pvc create time 00:19:08, last time pvc status changed 00:19:08 Once you see that LMI is active, you can assign IP addresses to the interfaces like you would on any other type of interface. Here is the IP address configuration for Router A: Router-A(config-if)#int so/o Router-A(config-if)# ip address 192.168.1.1 255.255.255.252 And here is the IP address configuration for Router B: Router-B(config-if)#int so/o Router-B(config-if)f ip address 192.168.1.2 255.255.255.252 At this point, you can ping across the link: Router-A#ping 192.168.1.2 Type escape sequence to abort. Sending 5, 100-byte ICMP Echos to 192.168.1.2, timeout is 2 seconds: Configuring Frame Relay Ping works because the router has determined from the IP subnet mask that this is a point-to-point link. To see the status of the PVC and which IP address has been mapped, use the show frame- relay map command: Router-A#sho frame map Serialo/o (up) : ip 192.168.1.2 dlci 102(0x66,0x1860), dynamic, broadcast,, status defined, active Basic Frame Relay with More Than Two Nodes Figure 23-11 shows a slightly more complex Frame Relay network. There are three routers in this network. Router A has a PVC to Router B, and another PVC to Router C. Router B does not have a direct connection to Router C. Router B 192.168.1.2/29 DLCI 201 192.168.1.1/29 Router A DLCI 102 DLCI 103 DLCI 301 192.168.1.3/29 Router C Figure 23-11. Three-node Frame Relay network To accomplish this design, as in the previous example, begin by configuring Frame Relay encapsulation. This step is the same on all routers: interface Serialo/o encapsulation frame-relay The IP address configuration is nearly the same as well; the only difference is the subnet masks. Here are the configurations for the three routers: Router A: Router-A(config)#int so/o Router-