A.Area ID

B.The list of neighbors

C.Hello and Dead Intervals

D.DR and BDR addresses

E.Stub flag

A.Routers broadcast the entire route table to all neighbors.

B.The sequence number for an update is incremented as it is flooded from router to router.

C.An adjacency database is maintained by each router.

D.The topological database is the same for all routers in a single area.

E.Information about directly connected links is sent to all neighbors.

A.Convergence is triggered when the adjacency between routers R1 and R2 drops as a result of Hello timeouts. At this point, both routers R1 and R2 re-compute their link state database and send updates to their adjacent routers. Once the process is complete for all routers, the networks have converged.

B.Convergence will not be triggered because switches cannot run routing protocols between them.

C.Convergence is triggered when the physical interfaces between routers R1 and R2 go down. At this point, both routers R1 and R2 re-compute their link state database and send updates to their adjacent routers. Once the process is complete for all routers, the networks have converged.

D.Convergence is triggered when an LSA is sent from router R1 to router R2 to indicate that the link is down. At this point, both routers R1 and R2 re-compute their link state database and send updates to their adjacent routers. Once the process is complete for all routers, the networks have converged.

E.Convergence is triggered when the switches notify the routers about the link state information. At this point, both routers R1 and R2 re-compute their link state database and send updates to their adjacent routers. Once the process is complete for all routers, the networks have converged

A.The subnet mask must be removed from the OSPF route

B.The metric must be set accordingly for RIP

C.The router must be configured as an ASBR

D.You must divide the cost of the OSPF route by three

A.Two

B.Three

C.One

D.Four