Free Cisco 200-301 Practice Exam with Questions & Answers | Set: 3

point-to-point. OSPF decisions depend on router IDs, area membership, matching timers, network type, interface state, and cost calculation rather than arbitrary route preference. Cisco CCNA 200-301 v1.1 includes this topic under IP Connectivity, so the answer must be validated against normal Cisco device behavior and the operational wording of the scenario. The key is not simply recognizing a familiar acronym; it is identifying what the feature does, where it is configured, and what result it produces. Distractors that mention process IDs, unrelated metrics, or the wrong interface parameter do not satisfy OSPF neighbor or route-selection requirements. In a real network, selecting the wrong option would either leave the feature nonfunctional, create a forwarding or security gap, or send troubleshooting in the wrong direction. The selected answer is the only one that matches the stated requirement and the way Cisco switching, routing, services, security, wireless, or automation functions are expected to operate. This is why the verified answer remains the best technical choice for the question.

The correct response is C. In a spine-and-leaf topology, every leaf switch connects to every spine switch. This full bipartite design gives predictable latency and equal-cost paths for east-west traffic. For Cisco CCNA 200-301 v1.1, the important point is the mechanism, not a generic description of the technology. Leaves do not connect only to one spine or through a central leaf, and spine switches normally do not connect to each other. When this appears in a network, the symptom normally confirms the answer: the route installed, the state selected, the packet forwarded, the wireless client behaviour, or the management workflow will follow this rule. That is why this answer is the best fit for the scenario and not just a plausible networking term.

service. Cisco wireless design separates RF behavior, client authentication, encryption, AP operating mode, and controller management. A WLC centralizes WLAN configuration and AP control, while lightweight APs use CAPWAP to register and exchange control/data information with the controller. Security choices such as WPA2/AES and WPA3/SAE are not interchangeable with older mechanisms such as WEP, TKIP, or RC4. RF questions also depend on channel planning: adjacent cells should avoid overlapping channels, and 5-GHz preference features reduce congestion in the 2.4-GHz band. The incorrect options generally confuse AP mode, authentication, encryption, or controller responsibilities. Cisco CCNA 200-301 v1.1 includes these items because wireless failures often come from using the right-looking feature in the wrong part of the WLAN design. The selected answer is the Cisco-consistent configuration or behavior for this wireless scenario.

Manual changes frequently lead to configuration errors and inconsistencies.. Automation and programmability questions test whether the engineer can separate data format, transport method, controller role, and API direction. REST commonly uses HTTP methods such as GET, POST, PUT, and DELETE. JSON represents structured data with objects, arrays, strings, numbers, Booleans, and null values. Northbound APIs allow applications to interact with a controller, while southbound APIs allow the controller to communicate with network devices. NETCONF and RESTCONF are configuration/management protocols, not generic forwarding behaviors. The incorrect choices often mix controller-to-device communication with application-to-controller communication or confuse a data format with a protocol. Cisco CCNA 200-301 v1.1 includes this area because modern network operations increasingly rely on APIs and centralized controllers. The selected answer matches the correct API direction, data representation, or HTTP operation for the scenario.

To configure an LACP EtherChannel and number it as 44, configure it between switches SW1 and SW2 using interfaces Ethernet0/0 and Ethernet0/1 on both sides, configure the EtherChannel as a trunk link, configure the trunk link with 802.1q tags, and configure VLAN ‘MONITORING’ as the untagged VLAN of the EtherChannel, you need to follow these steps:

On both SW1 and SW2, enter the global configuration mode by using the configure terminal command.

On both SW1 and SW2, select the two interfaces that will form the EtherChannel by using the interface range ethernet 0/0 - 1 command. This will enter the interface range configuration mode.

On both SW1 and SW2, set the protocol to LACP by using the channel-protocol lacp command.

On both SW1 and SW2, assign the interfaces to an EtherChannel group number 44 by using the channel-group 44 mode active command. This will create a logical interface named Port-channel44 and set the LACP mode to active on both ends. The LACP mode must match on both ends for the EtherChannel to form.

On both SW1 and SW2, exit the interface range configuration mode by using the exit command.

On both SW1 and SW2, enter the Port-channel interface configuration mode by using the interface port-channel 44 command.

On both SW1 and SW2, configure the Port-channel interface as a trunk link by using the switchport mode trunk command.

On both SW1 and SW2, configure the Port-channel interface to use 802.1q tags for VLAN identification by using the switchport trunk encapsulation dot1q command.

On both SW1 and SW2, configure VLAN ‘MONITORING’ as the untagged VLAN of the Port-channel interface by using the switchport trunk native vlan MONITORING command.

On both SW1 and SW2, exit the Port-channel interface configuration mode by using the exit command.

On both SW1 and SW2, save the configuration to NVRAM by using the copy running-config startup-config command.

This item belongs to Cisco CCNA 200-301 v1.1 Network Fundamentals, where the exam measures whether the candidate can match a technology, field, protocol, or network behavior to its correct operational role. The important step is to classify each left-side item by what it actually does, not by a similar-sounding term. For example, management protocols, address types, QoS mechanisms, wireless settings, and topology terms all have strict meanings in Cisco documentation and IOS behavior. A wrong match usually places a function at the wrong layer or assigns a feature to the wrong control point. The shown mapping keeps those boundaries intact: the component that performs the function is paired with the matching description, while unrelated distractors are left unused or mapped elsewhere. In real troubleshooting, this same skill prevents engineers from applying a security, routing, switching, or automation feature in the wrong part of the design.

Answer D is the technically correct selection. Virtual machines are operating system instances decoupled from the physical server hardware. The hypervisor presents virtual CPU, memory, disk, and NIC resources so multiple VMs can run on one host. This aligns with Cisco CCNA 200-301 v1.1 because the exam blueprint requires engineers to recognize operational behaviour from configuration symptoms and topology requirements. The VM does not manage host resources itself, and the physical server can run multiple OS instances concurrently through virtualization. Treat the distractors carefully: most are real Cisco terms, but they solve a different problem or operate at a different layer. The selected answer is the one that would be used by an engineer on the device or in the design to produce the outcome stated in the question.

An IPv6-enabled router interface joins the all-nodes multicast group FF02::1 and the all-routers multicast group FF02::2. FF02::1 is used to reach all IPv6 nodes on the local link. FF02::2 is used to reach IPv6 routers on the local link. The interface also joins a solicited-node multicast group derived from its IPv6 address, but that specific group is not one of the answer choices. 2000::/3 represents global unicast space, FC00::/7 is unique local addressing, and 2002::/5 or similar values are not the required local multicast groups. The “FF” prefix is the key sign that the address is multicast, while the “02” scope means link-local scope. CCNA 200-301 v1.1 Network Fundamentals expects candidates to identify common IPv6 address types and multicast groups used by Neighbor Discovery and routing functions. Therefore the verified answers are D and E. Reference: Cisco IPv6 multicast addressing and IPv6 interface behavior.

SW3. IP services questions test the exact function of infrastructure services such as addressing, name resolution, time synchronization, logging, monitoring, and secure management. Cisco CCNA 200-301 v1.1 includes this topic under Network Access, so the answer must be validated against normal Cisco device behavior and the operational wording of the scenario. The key is not simply recognizing a familiar acronym; it is identifying what the feature does, where it is configured, and what result it produces. The distractors name valid services, but they provide a different service function from the one required in the prompt. In a real network, selecting the wrong option would either leave the feature nonfunctional, create a forwarding or security gap, or send troubleshooting in the wrong direction. The selected answer is the only one that matches the stated requirement and the way Cisco switching, routing, services, security, wireless, or automation functions are expected to operate. This is why the verified answer remains the best technical choice for the question.

Answer C is the technically correct selection. A switch queues a new frame if the egress port is already transmitting another frame. Ethernet interfaces transmit one frame at a time on the link, so buffering handles temporary contention. This aligns with Cisco CCNA 200-301 v1.1 because the exam blueprint requires engineers to recognize operational behaviour from configuration symptoms and topology requirements. The switch does not drop a valid new frame just because another frame is currently being transmitted unless buffers are exhausted. Treat the distractors carefully: most are real Cisco terms, but they solve a different problem or operate at a different layer. The selected answer is the one that would be used by an engineer on the device or in the design to produce the outcome stated in the question.

In local AP mode, a lightweight access point builds CAPWAP connectivity to the wireless LAN controller and normally sends both control and client data traffic through the controller. Cisco commonly describes this as separate CAPWAP control and data tunnels. FlexConnect mode is different because it is designed for remote or branch deployments where the AP may locally switch client data traffic instead of backhauling it all through the WLC. That is why option C is wrong: with local switching, FlexConnect bridges traffic locally, not from the AP to the WLC. FlexConnect can also continue serving clients during a WAN or controller outage, depending on configuration and authentication method, so option B is wrong. Local mode does not turn the AP into an autonomous AP; it remains controller-based. Cisco CCNA 200-301 v1.1 Network Access expects the distinction between centralized WLC forwarding and branch-friendly FlexConnect operation. The clearly correct difference in the options is A.

The failure is caused by a native VLAN mismatch. On an 802.1Q trunk, traffic for the native VLAN is sent untagged by default. Both ends of the trunk must agree on which VLAN is native; otherwise, an untagged frame sent by one switch is placed into a different VLAN when it arrives on the other switch. That silently breaks traffic separation and can also create confusing reachability failures. Cisco switching guidance treats native VLAN consistency as a basic trunk requirement, and Cisco CCNA 200-301 v1.1 tests it as part of VLAN and trunk operation. Access-mode ports would be a different problem, but the exhibit points to a trunk inconsistency. The allowed VLAN list is also not the issue if the required VLANs are already carried. The fix is to configure the same native VLAN on both sides of the trunk, normally with switchport trunk native vlan < vlan-id > . The key clue is the mismatch between Switch 1 and Switch 2 native VLAN values.

When configuring VLAN trunking between a Cisco switch and a third-party switch, use IEEE 802.1Q. It is the open standard for VLAN tagging on Ethernet trunks. Cisco ISL was Cisco-proprietary and is obsolete on modern platforms. IEEE 802.1p relates to Class of Service marking inside the Ethernet header, not trunk encapsulation for interswitch VLAN transport. DSCP is an IP-layer QoS marking, not a Layer 2 VLAN trunking method. Cisco CCNA 200-301 v1.1 Network Access expects candidates to know that 802.1Q inserts a VLAN tag so multiple VLANs can traverse one physical trunk link. The native VLAN is carried untagged by default, while other VLANs are tagged. In multivendor networks, standards-based encapsulation is mandatory. Therefore, the action is to configure IEEE 802.1Q. The correct answer is B.

The router operates on a single device or a redundant pair.. Routing and redundancy questions are solved by applying longest-prefix match, administrative distance, metrics, and gateway-redundancy behavior in the correct order. Cisco CCNA 200-301 v1.1 includes this under Network Fundamentals, where the expected skill is selecting the feature that actually produces the requested network behavior. The wording normally gives the clue: protocol family, address scope, trunk state, route preference, security mode, API method, or controller role. Incorrect choices point to the wrong next hop, choose the wrong route source, or confuse routing with Layer 2 behavior. In production, choosing the wrong option would typically cause failed client access, a broken route, insecure management, or an automation workflow that targets the wrong interface. The selected answer is the Cisco-consistent behavior for this item.

On an 802.1Q trunk, the native VLAN is the VLAN whose traffic is sent untagged. If the administrator wants VLAN 67 to be untagged while all other VLANs remain tagged, the trunk native VLAN must be changed to 67. The correct command is switchport trunk native vlan 67. Setting switchport access vlan 67 would affect an access port, not trunk tagging behavior. switchport trunk allowed vlan 67 would restrict which VLANs are permitted over the trunk rather than making VLAN 67 untagged. A private VLAN association command is unrelated to 802.1Q trunk native VLAN handling. Cisco CCNA 200-301 v1.1 Network Access expects engineers to understand the difference between access VLANs, allowed VLAN lists, and native VLANs. The native VLAN must match on both sides of the trunk to avoid VLAN leakage and inconsistent forwarding. Here the requirement is explicitly about untagged trunk traffic, so D is the only precise command.

The default Hello and Dead timers are in use. OSPF behavior is controlled by interface state, area, timers, network type, cost, priority, router ID, and neighbor/adjacency rules. Cisco CCNA 200-301 v1.1 includes this under IP Connectivity, where the exam expects engineers to recognize the device behavior that actually produces the required outcome. The question is best solved by reading the operational clue rather than choosing a familiar acronym. The distractors confuse OSPF with unrelated metrics, local-only process values, or parameters that do not satisfy the adjacency or route-selection requirement. In a production network, the wrong choice would normally create an outage, leave a management or security gap, or send troubleshooting toward the wrong subsystem. The selected answer is the one that matches the control-plane, data-plane, wireless, security, services, or automation mechanism described in the question. That is why it remains the verified answer for this item.

default route. Cisco routers forward by longest prefix match first, then use administrative distance and metric when competing routes describe the same destination prefix. Cisco CCNA 200-301 v1.1 includes this topic under IP Connectivity, so the answer must be validated against normal Cisco device behavior and the operational wording of the scenario. The key is not simply recognizing a familiar acronym; it is identifying what the feature does, where it is configured, and what result it produces. Choices with the wrong prefix, mask, next hop, or administrative distance would either not match the traffic or would not behave as the intended backup path. In a real network, selecting the wrong option would either leave the feature nonfunctional, create a forwarding or security gap, or send troubleshooting in the wrong direction. The selected answer is the only one that matches the stated requirement and the way Cisco switching, routing, services, security, wireless, or automation functions are expected to operate. This is why the verified answer remains the best technical choice for the question.

control and distribution of physical resources. Automation questions require separating controller roles, API direction, data formats, HTTP behavior, and configuration-management tooling. Cisco CCNA 200-301 v1.1 includes this topic under Network Fundamentals, so the answer must be validated against normal Cisco device behavior and the operational wording of the scenario. The key is not simply recognizing a familiar acronym; it is identifying what the feature does, where it is configured, and what result it produces. The incorrect options mix northbound and southbound communication, confuse data serialization with transport, or describe traditional device-by-device management. In a real network, selecting the wrong option would either leave the feature nonfunctional, create a forwarding or security gap, or send troubleshooting in the wrong direction. The selected answer is the only one that matches the stated requirement and the way Cisco switching, routing, services, security, wireless, or automation functions are expected to operate. This is why the verified answer remains the best technical choice for the question.

To configure static routing on R1 to ensure that it prefers the path through R2 to reach only PC1 on R4’s LAN, you need to create a static route for the host 10.0.0.100/8 with a next-hop address of 20.0.0.2, which is the IP address of R2’s interface connected to R1. You also need to assign a lower administrative distance (AD) to this route than the default AD of 1 for static routes, so that it has a higher preference over other possible routes. For example, you can use an AD of 10 for this route. To create this static route, you need to enter the following commands on R1’s console:

R1#configure terminal R1(config)#ip route 10.0.0.100 255.0.0.0 20.0.0.2 10 R1(config)#end

To configure static routing on R1 that ensures that traffic sourced from R1 will take an alternate path through R3 to PC1 in the event of an outage along the primary path, you need to create another static route for the host 10.0.0.100/8 with a next-hop address of 40.0.0.2, which is the IP address of R3’s interface connected to R1. You also need to assign a higher AD to this route than the AD of the primary route, so that it has a lower preference and acts as a backup route. For example, you can use an AD of 20 for this route. This type of static route is also known as a floating static route. To create this static route, you need to enter the following commands on R1’s console:

R1#configure terminal R1(config)#ip route 10.0.0.100 255.0.0.0 40.0.0.2 20 R1(config)#end

To configure default routes on R1 and R3 to the Internet using the least number of hops, you need to create a static route for the network 0.0.0.0/0 with a next-hop address of the ISP’s interface connected to each router respectively. A default route is a special type of static route that matches any destination address and is used when no other specific route is available. The ISP’s interface connected to R1 has an IP address of 10.0.0.4, and the ISP’s interface connected to R3 has an IP address of 50.0.0.4. To create these default routes, you need to enter the following commands on each router’s console:

On R1: R1#configure terminal R1(config)#ip route 0.0.0.0 0.0.0.0 10.0.0.4 R1(config)#end

On R3: R3#configure terminal R3(config)#ip route 0.0.0.0 0.0.0.0 50.0.0.4 R3(config)#end

digital certificates. IP services questions are about the supporting protocols that make a network manageable and usable: DHCP supplies addressing information, DNS resolves names, NAT translates address spaces, NTP synchronizes time, syslog records events, SNMP monitors devices, and QoS classifies or prioritizes traffic. Cisco IOS commands are precise; a similar-looking command can configure a client, a relay, a pool, or a server role depending on context. The incorrect options typically name real services but solve a different operational problem. Cisco CCNA 200-301 v1.1 includes these topics because production networks fail just as often from broken services as from broken routing. The chosen answer is the one that performs the exact function in the scenario, whether that is file transfer, address assignment, logging level selection, monitoring security, or traffic treatment.