Drag and Drop Ordering Questions

Enter interface configuration mode, set HSRP version, configure virtual IP, set priority (if needed), enable preempt, then verify with 'show standby'.

This is the correct sequence: first configure HSRP on the interface (version, virtual IP, priority, preempt), then verify the state with 'show standby' to confirm active/standby roles.

Enter global configuration mode, create a VLAN, assign an IP address, then enable HSRP on the VLAN interface.

This is incorrect because HSRP is configured on a Layer 3 interface (e.g., physical or SVI), not by creating a VLAN separately. The steps are out of order and incomplete.

Configure HSRP priority first, then set the virtual IP, then enter interface configuration mode, and finally verify with 'show running-config'.

This is incorrect because you must enter interface configuration mode before setting HSRP parameters. Also, verification should use 'show standby' to see active/standby state, not just 'show running-config'.

Enable HSRP globally with a 'router hsrp' command, then assign the virtual IP on the interface, and verify with 'debug standby'.

This is incorrect because HSRP does not require a global 'router hsrp' command; it is configured per interface. 'debug standby' is a debugging tool, not a verification command for normal operation.

Configure DHCP scope, create an SSID profile, enable the SSID, configure WPA3-Personal security, client associates and obtains IP address.

This is incorrect because DHCP configuration should come after the SSID is enabled and security is set, not before creating the SSID. The DHCP scope is part of the network infrastructure that supports the WLAN, but the logical order on the WLC starts with the SSID profile.

Create an SSID profile, configure WPA3-Personal security, enable the SSID, configure DHCP scope, client associates and obtains IP address.

This correct order first creates the WLAN, then secures it with WPA3 before enabling it, preventing any open-air gap. After security, the SSID is activated, DHCP is configured, and the client can associate and obtain an IP.

Create an SSID profile, enable the SSID, configure DHCP scope, configure WPA3-Personal security, client associates and obtains IP address.

This is incorrect because DHCP configuration should come after security configuration, not before. The DHCP scope is part of the network services that support the WLAN, but the security settings must be in place before the client can associate and request an IP.

Enter global configuration mode, enable DHCP relay on the required interface, create the DHCP pool, configure the network and default gateway, exclude addresses, and verify.

This is incorrect because DHCP relay should be configured after the DHCP pool is created and addresses are excluded, not before. The relay configuration depends on the interface and the DHCP server address, which is independent of the pool, but the logical order is to set up the server first.

Enter global configuration mode, create the DHCP pool, enable DHCP relay on the required interface, configure the network and default gateway, exclude addresses, and verify.

This is incorrect because the network and default gateway must be configured within the DHCP pool before excluding addresses. The pool configuration includes the network and default gateway, and excluding addresses is part of the pool configuration.

Enter global configuration mode, exclude addresses, create the DHCP pool, configure the network and default gateway, enable DHCP relay on the required interface, and verify.

Correct order: exclusions first to protect reserved addresses, then pool configuration, relay agent, and verification.

Check physical connectivity (cables, link lights, interface status).

The bottom-up OSI approach starts at Layer 1 (physical). Checking physical connectivity ensures the cable is plugged in, link lights are on, and the interface is up/up, which is the foundation for all higher-layer communication.

Verify DNS resolution (nslookup, DNS server reachability).

This step belongs to Layer 7 (application) and is too high in the OSI model for a bottom-up approach. Starting with DNS skips lower-layer checks that could be the root cause.

Check IP configuration (IP address, subnet mask, default gateway).

This step corresponds to Layer 3 (network). While important, it should come after verifying Layer 1 and Layer 2 in a bottom-up approach.

Verify MAC address table and VLAN configuration on the switch.

This step belongs to Layer 2 (data link). In a bottom-up approach, it should come after Layer 1 but before Layer 3. Placing it after Layer 3 violates the order.

Define the capture point specifying the interface and direction (monitor capture point command)

This is the correct sequence for using embedded packet capture on IOS-XE. You must first enter global config mode, then define the capture point with interface and direction, start the capture, stop it when enough data is collected, and finally export the capture file to a TFTP server for analysis in Wireshark.

Start the capture (monitor capture point start)

This is incorrect because the capture point must be defined before starting the capture. Starting the capture without a defined capture point would fail or capture nothing.

Stop the capture (monitor capture point stop)

This is incorrect because exporting the capture must occur after the capture is stopped. Exporting before starting or during capture would export an empty or incomplete file.

Export the capture to a TFTP server (monitor capture point export)

This is incorrect because the capture point must be defined before starting the capture. Additionally, stopping the capture before defining the capture point is nonsensical.

Enable IPv6 routing globally with 'ipv6 unicast-routing'

This step is correct because OSPFv3 requires IPv6 to be enabled globally on the router. Without 'ipv6 unicast-routing', the router will not process IPv6 traffic or run OSPFv3.

Enter OSPFv3 configuration mode with 'router ospfv3 1'

This is incorrect because OSPFv3 is configured per-interface, not via a global router configuration mode like OSPFv2. The command 'router ospfv3' does not exist; instead, OSPFv3 is enabled directly on interfaces.

Configure OSPFv3 on each interface with 'ipv6 ospf <process-id> area <area-id>'

This step is correct in content but placed out of order. While this command is used to enable OSPFv3 on an interface, it must come after enabling IPv6 routing globally. The question asks for the correct order, and this step should not be first.

Verify OSPFv3 adjacency with 'show ipv6 ospf neighbor'

This is incorrect as the first step because verification comes after configuration. Verification commands are used to confirm that OSPFv3 adjacencies have formed, which requires OSPFv3 to be already configured on interfaces.

1. Create VLANs, 2. Configure trunking with non-default native VLAN, 3. Assign access ports to VLANs, 4. Verify configuration

Creating VLANs first is essential. Configuring trunking with a non-default native VLAN next sets the trunk parameters before assigning access ports, following a recommended workflow that reduces native VLAN mismatches.

Use show commands to gather interface statistics and identify errors.

This is the first step because you must collect data (e.g., show interfaces, show interface status) to identify CRC errors, duplex mismatches, or flapping before making any changes.

Clear interface counters to reset statistics.

This is incorrect because clearing counters should be done after fixing the configuration to verify the fix, not before gathering data or making changes.

Apply configuration changes to resolve the identified issues.

This is incorrect because you must first identify the issues using show commands before applying any configuration changes.

Verify the fix by monitoring interface statistics after clearing counters.

After clearing counters, you must monitor the interface to confirm that error counters remain zero, ensuring the fix is effective.

Configure the 'ip helper-address' command on the interface facing the client subnet.

This is correct because the 'ip helper-address' command enables DHCP relay on the router interface, forwarding DHCP broadcasts to the DHCP server.

Verify DHCP relay operation using 'show ip interface' and 'show ip dhcp relay'.

Passive show commands that confirm the relay configuration and operation after the DORA process completes.

Trigger the DORA process on the client by releasing and renewing the IP address.

This is incorrect because triggering the DORA process should occur after the relay is configured and verified, not before. The order should be: configure relay, verify, then trigger DORA.

Use 'debug ip dhcp relay' to observe the DORA packets being forwarded.

This is incorrect because debugging should be the last step after triggering DORA, not before. The correct order is: configure, verify, trigger, then debug.

Enter global configuration mode

All configuration changes must be performed from global configuration mode.

Create an access list to match the traffic to be translated

Defines which internal source IP addresses will be eligible for PAT.

Configure the inside interface with 'ip nat inside'

Identifies the interface connecting to the internal network for NAT operations.

Configure the outside interface with 'ip nat outside'

Identifies the interface connecting to the external network for NAT operations.

Enable IPv6 unicast routing globally

This step is correct because OSPFv3 requires IPv6 to be enabled globally with the 'ipv6 unicast-routing' command before OSPFv3 can function.

Configure OSPFv3 on the interface

This is incorrect because OSPFv3 is configured on interfaces using the 'ipv6 ospf <process-id> area <area-id>' command, but this step must occur after enabling IPv6 routing and creating the OSPFv3 process.

Create the OSPFv3 routing process

This is incorrect because while creating the OSPFv3 process with 'ipv6 router ospf <process-id>' is necessary, it must be done after enabling IPv6 unicast routing globally.

Verify OSPFv3 adjacency

This is incorrect because verification is the final step, performed after all configuration steps are complete.

Define the capture point with interface and optional filter, start the capture, stop the capture, export the capture file, then analyze in Wireshark.

This sequence follows the correct embedded packet capture workflow: definition, start, stop, export, analysis.

1. Enter interface configuration mode on the desired interface. 2. Configure the HSRP group number and virtual IP address using the 'standby group-number ip virtual-ip' command. 3. Set the HSRP priority using the 'standby group-number priority priority-value' command. 4. Enable preemption using the 'standby group-number preempt' command. 5. Verify the HSRP state using 'show standby' or 'show standby brief'. 6. Test failover by shutting down the active router's interface and observing the state change.

This order correctly follows the standard HSRP configuration process: first configure the interface and HSRP group with a virtual IP, then set priority and preempt to influence the election, then verify the state, and finally test failover to confirm the election process works.

1. Enter interface configuration mode. 2. Set the HSRP priority. 3. Configure the HSRP group number and virtual IP. 4. Enable preemption. 5. Test failover. 6. Verify the HSRP state.

This order is incorrect because the HSRP group and virtual IP must be configured before setting priority and preempt. Additionally, verification should occur before testing failover, not after.

1. Enter interface configuration mode. 2. Configure the HSRP group number and virtual IP. 3. Enable preemption. 4. Set the HSRP priority. 5. Verify the HSRP state. 6. Test failover.

This order is incorrect because preemption should be enabled after setting priority, as preemption relies on the priority value to determine when to take over. Setting preempt before priority is logically flawed.

1. Enter interface configuration mode. 2. Set the HSRP priority. 3. Enable preemption. 4. Configure the HSRP group number and virtual IP. 5. Verify the HSRP state. 6. Test failover.

This order is incorrect because the HSRP group and virtual IP must be configured before setting priority and preempt. Without a group, the priority and preempt commands have no effect.

Enter interface configuration mode for the physical ports (interface range gigabitethernet 0/1-2).

Before assigning any channel-group properties, you must enter the config-if context for the interfaces that will participate in the EtherChannel.

Configure the channel-group for the interfaces using mode active (channel-group 1 mode active).

The channel-group command with the active mode enables LACP negotiation, which is essential for a dynamic EtherChannel using the LACP protocol.

Optionally configure the Port-Channel interface (for example, switchport mode trunk).

After binding the physical ports to a channel group, applying desired Layer 2 settings to the logical Port-Channel interface ensures consistency across the bundle.

Verify the EtherChannel status with the show etherchannel summary command.

Verification confirms the EtherChannel is formed, lists member ports, and shows the protocol in use (LACP), completing the configuration process.

Enter global configuration mode, mark inside and outside interfaces, create a pool of global addresses, then enable PAT with overload.

This is the correct order for configuring PAT on a Cisco IOS-XE router. First, you enter global configuration mode. Then you mark the inside and outside interfaces using 'ip nat inside' and 'ip nat outside'. Next, you create a pool of global addresses using 'ip nat pool'. Finally, you enable PAT with the 'overload' keyword to allow multiple inside hosts to share the pool addresses.

Create a pool of global addresses, mark inside and outside interfaces, enter global configuration mode, then enable PAT with overload.

This is incorrect because you must enter global configuration mode before marking interfaces or creating the pool. The order is wrong; you cannot create a pool or mark interfaces without first being in the correct configuration mode.

Mark inside and outside interfaces, enter global configuration mode, enable PAT with overload, then create a pool of global addresses.

This is incorrect because you must enter global configuration mode before marking interfaces. Also, the pool must be created before enabling PAT with overload, as the overload command references the pool.

Collect data via telemetry from network devices

Telemetry data collection is the foundational first step.

Stream data to an analytics platform

Real-time streaming enables immediate processing and analysis.

Monitor network performance using dashboards

Dashboards provide visual monitoring after data is processed.

Generate alerts for threshold violations

Alerts notify when monitored metrics exceed defined thresholds.

Enter global configuration mode, create a telemetry subscription, configure the receiver, define the sensor path, associate the sensor group with the subscription.

This is the correct order: start in global config, create the subscription, set the receiver, define the sensor path, then link the sensor group to the subscription.

Enter global configuration mode, define the sensor path, create a telemetry subscription, configure the receiver, associate the sensor group with the subscription.

This is incorrect because the sensor path must be defined after the subscription is created and the receiver is configured, not before.

Enter global configuration mode, configure the receiver, create a telemetry subscription, define the sensor path, associate the sensor group with the subscription.

This is incorrect because the subscription must be created before configuring the receiver; the receiver is part of the subscription configuration.

Enter global configuration mode, create a telemetry subscription, define the sensor path, configure the receiver, associate the sensor group with the subscription.

This is incorrect because the receiver must be configured before defining the sensor path; the sensor path references the receiver.

Set static IPv4 address on Windows host

This is the first step because the Windows host must have a static IPv4 address before any IPv6 configuration can be verified. The IPv4 address is used for basic connectivity and management access.

Configure IPv6 EUI-64 address on Cisco router

This is incorrect because the IPv6 EUI-64 address should be configured after the static IPv4 address on Windows, but before verification steps. However, this option is placed as the first step, which is wrong.

Verify IPv6 EUI-64 address on Cisco router

This is incorrect because verification should occur after configuration, not before. The correct order is to configure the IPv6 address first, then verify it.

Confirm connectivity from Windows host

This is incorrect because the final step should be confirming connectivity from the Windows host, but it is placed as the second step here. The correct order is to verify on the router first, then confirm from Windows.

Configure PortFast and BPDU guard on the interface.

This is the first step: enabling PortFast and BPDU guard on the access port to prevent loops and protect against rogue BPDUs.

Trigger a BPDU guard violation by connecting a switch to the port.

This is incorrect because the violation must be triggered after configuration, but it is not the first step; configuration comes first.

Diagnose the violation by checking the error-disabled status.

This is incorrect because diagnosis occurs after the violation, not before configuration.

Remove the unauthorized switch, then recover the port by issuing the 'shutdown' and 'no shutdown' commands.

This is incorrect because recovery is the final step, not the first.

Check the physical cable connections and link lights

This is correct because the bottom-up OSI approach starts at Layer 1 (Physical). Verifying cables and link lights ensures the physical medium is functional before testing higher layers.

Verify IP address configuration and subnet mask

This is incorrect because IP addressing is a Layer 3 (Network) function. In a bottom-up approach, you must verify lower layers (Physical, Data Link) before moving to Layer 3.

Ping the default gateway to test Layer 3 connectivity

This is incorrect because pinging tests Layer 3 (Network) and assumes lower layers are working. In a bottom-up approach, you should first verify Physical and Data Link layers.

Check the MAC address table on the switch

This is incorrect because checking the MAC address table is a Layer 2 (Data Link) function. While it is lower than Layer 3, it should come after verifying the physical layer (cables, link lights) in a bottom-up approach.