A.P devices are not required to be MPLS-enabled.

B.P devices must support MP-BGP.

C.P devices participate in service provider core routing.

D.P devices must be aware of the VPRNs.

A.eBGP peers are usually directly connected to each other.

B.eBGP peers are managed under a single administration.

C.eBGP peers typically use system addresses for session establishment.

D.eBGP peers do not propagate updates learned via iBGP.

A.Neighbor R1should be part of AS 65550, while neighbor R2 should be part of AS 65540.

B.Both neighbors R1and R2 should be part of AS 65540.

C.Neighbor R1should be part of AS 65550, while neighbor R2 should be part of AS 65560.

D.Both neighbors R1and R2 should be part of AS 65560.

A.WRED uses the shared buffer utilization, instead of the individual queue depth, to get a better picture of the average resource utilization of the shared buffer space.

B.WRED polices the shared buffer pool and marks all packets above a certain rate as "discard eligible."

C.WRED monitors the shared buffer space utilization over a period of time.

D.WRED uses two configurable slopes for each buffer pool: a high slope and a low slope.

E.WRED disables the TCP slow-start congestion control mechanism.

A.On a specific PE, the MP-BGP updates for prefixes from a single VPRN carry different labels.

B.An MP-BGP update carries an MPLS label that is used as the service label for a VPRN.

C.There can be multiple Route Targets per route in an MP-BGP update.

D.There can only be one Route Distinguisher per route in an MP-BGP update.

E.Traditional BGP attributes and MP-BGP attributes are present in an MP-BGP update.