A.CE2 forwards an unlabeled IP packet to PE2 via the VPRN interface.

B.PE2 pushes two labels on the IP packet and label-switches the packet to ASBR2.

C.ASBR2 pops one label from the IP packet and label-switches it to ASBR1.

D.ASBR1 pushes two labels on the IP packet and label-switches the packet to PE1.

A.The PE will install a maximum of 40 prefixes into the customer vrf, generate a log message when 10 routes are received and disable learning of new routes at 41

B.The PE will install a maximum of 40 prefixes into the customer vrf, and generate a log message both when 30 and 41 routes are received

C.The PE will install a maximum of 40 prefixes into the customer vrf, generate a log message when 4 routes are received and disable learning of new routes at 41

D.The PE will install a maximum of 40 prefixes into the customer vrf and generate a log message when
40 routes are received

E.The PE will install a maximum of 40 prefixes into the customer vrf, generate a log message when 10 routes are received and drop the connection at 41

A.A full mesh VPRN

B.A PE hub and spoke VPRN

C.An extranet VPRN

D.A CE hub and spoke VPRN

A.Full mesh between PE and CE devices

B.Full mesh of PE devices

C.Full mesh between PE and P devices

D.Full mesh between all CE, PE and P devices

E.Full mesh of P devices

A.eBGP is used for route and label exchange between CSC-CE and CSC-PE routers.

B.iBGP can be used to distribute routes between CSC-CE and PE routers.

C.MP-iBGP is used to advertise routes between the CSC-PE routers.

D.MP-iBGP is used to advertise end-customer and Internet routes directly between the PE routers.