Cisco 200-301 Online Practice Questions and Exam Preparation

Cisco 200-301 Online Questions & Answers

• Question 1421:

  Refer to the exhibit. If R1 receives a packet destined to 172.16.1.1, to which IP address does it send the packet?

  

  A. 192.168.14.4
  B. 192.168.12.2
  C. 192.168.13.3
  D. 192.168.15.5
  A. 192.168.14.4

  ---

  Route to 172.16.1.1 is not in the routing table so traffic will be sent to the default route (Gateway of last resort) 192.168.14.4

• Question 1422:

  Refer to the exhibit.

  

  A network administrator configures an interface on a new switch so that it connects to interface Gi1/0/1 on switch Cat9300-1. Which configuration must be applied to the new interface?

  A. switchport mode trunk switchport trunk native vlan 321 switchport trunk allowed vlan 100,200,300
  B. switchport mode dynamic desirable switchport trunk native vlan 321 switchport trunk allowed vlan 100,200,300
  C. switchport trunk encapsulation dot1q switchport trunk native vlan 321 switchport trunk allowed vlan 100-300
  D. switchport nonegotiate switchport access vlan 321 switchport trunk allowed vlan except 2-1001
  A. switchport mode trunk switchport trunk native vlan 321 switchport trunk allowed vlan 100,200,300

  ---

  
  

• Question 1423:

  DRAG DROP

  Drag and drop the IPv6 address type characteristics from the left to the right.

  Select and Place:

  

  

• Question 1424:

  Refer to the exhibit. What must be configured to enable 802.11w on the WLAN?

  

  A. Set PMF to Required.
  B. Enable MAC Filtering.
  C. Enable WPA Policy.
  D. Set Fast Transition to Enabled
  A. Set PMF to Required.

  ---

  To enable 802.11w (also known as Protected Management Frames or PMF) on the WLAN, the action that must be taken is to set PMF to Required.

  PMF is a security feature in Wi-Fi networks that provides protection for management frames, such as association and disassociation frames, against various attacks. By setting PMF to Required, all clients connecting to the WLAN will be required to support and use PMF for enhanced security. This ensures that management frames exchanged between the access point and clients are protected from potential tampering or exploitation.

• Question 1425:

  What is the expected outcome when an EUI-64 address is generated?

  A. The interface ID is configured as a random 64-bit value
  B. The characters FE80 are inserted at the beginning of the MAC address of the interface
  C. The seventh bit of the original MAC address of the interface is inverted
  D. The MAC address of the interface is used as the interface ID without modification
  C. The seventh bit of the original MAC address of the interface is inverted

  ---

  Ref: Understanding IPv6 EUI-64 Bit Address - Cisco Community

  Post by SunilKhanna

  "...

  The IPv6 EUI-64 format address is obtained through the 48-bit MAC address. The MAC address is first separated into two 24-bits, with one being OUI (Organizationally Unique Identifier) and the other being NIC specific. The 16-bit 0xFFFE is then inserted between these two 24-bits for the 64-bit EUI address. IEEE has chosen FFFE as a reserved value which can only appear in EUI-64 generated from the an EUI-48 MAC address.

  ...

  Next, the seventh bit from the left, or the universal/local (U/L) bit, needs to be inverted. This bit identifies whether this interface identifier is universally or locally administered.

  ...

  Once the above is done, we have a fully functional EUI-64 format address.

  ..."

• Question 1426:

  What is the purpose of an ESSID?

  A. It allows multiple access points to provide a common network for client connections.
  B. It supports fast roaming features such as 802.11 r, 802.11k, and 802.11v.
  C. It serves as the wireless MAC address of the access point.
  D. It provides greater security than a standard SSID.
  A. It allows multiple access points to provide a common network for client connections.

  ---

  ESSID stands for Extended Service Set Identifier. It is essentially the name of a wireless network. When multiple access points are used to cover a larger area or provide better coverage, they can be configured with the same ESSID to allow client devices to seamlessly roam between them while maintaining a continuous connection to the network. This helps create a common network for client connections, enabling devices to switch between access points without losing connectivity. The ESSID serves as a way for clients to identify and connect to the desired wireless network. The other options (B, C, and D) do not accurately describe the purpose of an ESSID.

• Question 1427:

  PC1 tries to send traffic to newly installed PC2. The PC2 MAC address is not listed in the MAC address table of the switch, so the switch sends the packet to all ports in the same VLAN. Which switching concept does this describe?

  A. MAC address aging
  B. MAC address table
  C. frame flooding
  D. spanning-tree protocol
  C. frame flooding

• Question 1428:

  CCNA Lab simulation

  Guidelines

  This is a lab item in which tasks will be performed on virtual devices.

  1. Refer to the Tasks tab to view the tasks for this lab item.

  2. Refer to the Topology tab to access the device console(s) and perform the tasks.

  3. Console access is available for all required devices by clicking the device icon or using the tab(s) above the console window.

  4. All necessary pre-configurations have been applied.

  5. Do not remove any existing configurations from the devices, only those necessary to make the appropriate changes required to fulfill the listed tasks.

  6. Do not change the enable password or hostname for any device.

  7. Save your configurations to NVRAM before moving to the next item.

  8. Click Next at the bottom of the screen to submit this lab and move to the next question.

  9. When Next is clicked, the lab closes and cannot be reopened.

  Topology

  

  Tasks

  Task 1

  1. Configure a static default route on R5 per the topology.

  2. Configure a static default route on R1, preferring the path through R2 towards R6.

  3. From R5, use traceroute and ping to verify the path towards and reachability of R6.

  Task 2

  1. Configure a floating static default route on R1, preferring the path through R3 towards R6 if the link to R2 should fail.

  2. Configure the administrative distance for 200.

  3. Configure a static route on R3 to forward the return traffic towards 10.100.110.0/25.

  4. After shutting interface e0/0 on R1, use traceroute and ping from R5 to verify path towards and reachability of R6.

  A. Check the Explanation below
  B. Place Holder
  C. Place Holder
  D. Place Holder
  A. Check the Explanation below

  ---

  Explanation

  Task 1: Static Routes and Verification

  1. Configure a static default route on R5:

  Connect to R5 console.

  Enter the following command: R5(config)# ip route 0.0.0.0 0.0.0.0 10.100.110.1

  This sets a default route, sending all traffic from R5 to R1 (assuming 10.100.110.1 is R1’s IP on the e0/2 interface).

  2. Configure a static default route on R1 preferring the path through R2:

  Connect to R1 console.

  Enter the following command:

  R1(config)# ip route 0.0.0.0 0.0.0.0 10.122.12.2

  This sets a default route from R1 to R2, which in turn connects to R6.

  3. Verification on R5:

  On R5, use ping and traceroute to verify the path to R6:

  R5# ping 10.200.200.6

  R5# traceroute 10.200.200.6

  Ensure that the traffic follows the path from R5 to R1, then to R2, and finally to R6.

  Task 2: Floating Static Route, Administrative Distance, and Static Route on R3

  1. Configure a floating static default route on R1 (via R3) with an AD of 200:

  Connect to R1 console.

  Enter the following command: R1(config)# ip route 0.0.0.0 0.0.0.0 10.34.34.3 200

  This configures a secondary route through R3 with a higher administrative distance (200), making it a backup route if the primary route through R2 fails.

  2. Configure a static route on R3 for return traffic:

  Connect to R3 console.

  Enter the following command to route traffic back to 10.100.110.0/25 network via R2:

  R3(config)# ip route 10.100.110.0 255.255.255.128 10.33.13.2

  3. Verification after interface shutdown:

  On R1, shut down interface e0/0 to simulate a failure.

  R1(config)# interface e0/0

  R1(config-if)# shutdown

  Go back to R5 and use ping and traceroute again to verify that the path to R6 now goes through R3.

  R5# ping 10.200.200.6

  R5# traceroute 10.200.200.6

  Following these configurations should allow R5 to reach R6 via the primary path and, in case of failure on R1’s e0/0 interface, switch over to the secondary path through R3.

• Question 1429:

  How does TFTP operate in a network?

  A. Provides secure data transfer
  B. Relies on the well-known TCP port 20 to transmit data
  C. Uses block numbers to identify and mitigate data-transfer errors
  D. Requires two separate connections for control and data traffic
  C. Uses block numbers to identify and mitigate data-transfer errors

  ---

  The Block Number field on Data Packets starts with one and then increase sequentially by one for each new packets. This type of numbering allows TFTP applications to identify between new DATA packets and duplicates. https://www.omnisecu.com/tcpip/tftp-data-packet.php#:~:text=Block%20Number%20%3A%20The%20Block%20Number,from%200%20to%20512%20bytes.

• Question 1430:

  Which interface is used for out-of-band management on a WLC?

  A. management
  B. virtual
  C. dynamic
  D. service port
  D. service port

  ---

  Out of band is service-port interface In band is management interface