A. Distribute traffic evenly across multiple paths.

B. Compress data to improve transmission speed.

C. Automatically update routing tables.

D. Encrypt data packets.

A. They are marked as stale but kept in the routing table.

B. They are immediately removed from the routing table.

C. They are advertised to other BGP neighbors.

D. Their metric is increased to prevent their use.

A. Remove one of the redundant links between a leaf node and a spine node

B. Add two connections between the spine nodes

C. Add a connection between the spine nodes

D. Remove the connection between the leaf nodes

A. MED

B. as path

C. local preference

D. origin

A. To physically separate different customer environments.

B. For providing Layer 2 connectivity over a Layer 3 fabric.

C. To increase the physical bandwidth of the underlying network.

D. To enable direct Internet access for applications.

A. The port is disabled.

B. It causes Layer 2 loops.

C. It drops the packet.

D. No logging takes place.

A. Each device in an EBGP fabric will be configured to be part of the same private AS.

B. An EBGP fabric relies on an IGP to advertise loopback IPs.

C. An EBGP fabric does not require an IGP to advertise loopback IPs.

D. Each device in an EBGP fabric will be configured in its own unique private AS.

A. It enables VLAN tagging.

B. It prevents MAC flooding attacks.

C. It provides Layer 2 encryption.

D. It offers data integrity and confidentiality.

A. It simplifies physical network design by allowing multiple virtual topologies over it.

B. It replaces the need for physical network infrastructure.

C. It offers higher physical bandwidth capacity.

D. It provides direct Internet access to applications.

A. To restrict the rate of certain types of traffic.

B. To prevent loops in the network.

C. To filter MAC addresses.

D. To segregate broadcast domains.

A. To encrypt OSPF traffic.

B. To connect an OSPF area to the backbone area through a non-backbone area.

C. To balance load across multiple links.

D. To connect OSPF areas to external networks.

A. When routes advertised by the SP router are received by router2, they will contain the next-hop address of router1.

B. When routes advertised by the SP router are received by router2, they will contain the next-hop address of the SP router.

C. When routes advertised by router2 are received by the SP router, they will contain the next-hop address of router2.

D. When routes advertised by router2 are received by the SP router, they will contain the next-hop address of router1.