Implementing Aruba Campus Switching solutions Free Sample Questions

AOS switches do not support two RADIUS servers for redundancy, instead, a secondary authentication method is required.

Dynamic authentication is only permitted on one of the RADIUS servers and must be removed from the other.

Each RADIUS server must use a unique port number for the authentication and dynamic authorization port.

Each AOS-Switch will send all RADIUS requests to the first server on the list unless that server becomes unreachable.

Interface 1 receives traffic with a tag.

The AOS-Switch is configured to use eight queues.

The forwarding path for the traffic uses VLAN tags.

An 802.1p-to-DSCP map exists for priority 5.

Run a packet capture on Device 2, run the application, and look in the packet capture for a high value DSCP in the IP header.

Set up RMON alarms on the switches that trigger when a high number of packets are dropped. Then, run the application and check for the alarm.

Clear interface statistics on the switches. Then, run the application and check the interface queue statistics for the switch-to-switch links.

Run a packet capture on Device 1, run the application, and look in the packet capture for a high value DSCP in the IP header.

Set the OSPF cost on VLAN 108 higher than 1 on Switch-2 and Switch-3.

Set the OSPF administrative distance on Switch-2 higher than 110

Set the OSPF area type to normal on all of the switches in Area 1.

Set the cost in the OSPF Area 1 stub command higher than 1 on Switch-2.

It validates the signature for firmware pushed to the switch dynamically

It encrypts traffic sent and received by tunneled-node endpoints.

It authenticates control traffic between the switch and its Mobility Controller.

It provides an extra layer of authentication for endpoints on tunneled-node ports.

VLAN 20 must have GRE enabled on it.

VLAN 20 cannot have an IP address.

VLAN 20 must have an IP address in the same subnet as the controller.

VLAN 20 must not enable jumbo frames.

The ABRs create a discontinuous area and disrupt intra-area routing between devices within Area
1.

The ABR core would send Area 1 traffic destined to the other switch through an access switch.

The ABRs lose adjacency entirely and cannot route traffic between each other at all.

The ABRs lose adjacency in Area 1 and must route all traffic to each other through Area 0.

Instance 1 = VLANs 4-5 Instance 2 = VLANs 6-7
Switch 2 instance 1 priority = 0 Switch 2 instance 2 priority = 1
Switch 3 instance 1 priority = 1 Switch 3 instance 2 priority = 0

Instance 1 = VLANs 4,6 Instance 2 = VLANs 5,7
Switch 2 instance 1 priority = 0 Switch 2 instance 2 priority = 1
Switch 3 instance 1 priority = 1 Switch 3 instance 2 priority = 0

Instance 1 = VLANs 4,6 Instance 2 = VLANs 5,7
Switch 2 instance 1 priority = 0 Switch 2 instance 2 priority = 1
Switch 3 instance 1 priority = 0 Switch 3 instance 2 priority = 1

Instance 1 = VLANs 4-5 Instance 2 = VLANs 6-7
Switch 2 instance 1 priority = 0 Switch 2 instance 2 priority = 1
Switch 3 instance 1 priority = 0 Switch 3 instance 2 priority = 1

Define trk1 as a trusted DHCP port.

Define an authorized DHCP server.

Enable ARP protection.

Define edge ports as untrusted DHCP ports.

It temporarily drops all IP traffic from Device 1 only.

It temporarily drops all IP traffic on interface 1.

It drops all IP traffic from Device 1 until the host is manually unblocked.

It drops all IP traffic on interface 1 until the interface is manually unblocked.