Pass Cisco 200-301 Exam in First Attempt Guaranteed!

Untrusted DHCP snooping ports can carry ordinary Ethernet user traffic and client requests; being untrusted means the switch applies a server-reply trust policy. If no frames at all were permitted, legitimate users could not reach DHCP or other services. The feature distinguishes DHCP message roles, not blanket physical link authorization.

OSPF prefix length derives from configured IP masks and routing information, not from DHCP snooping port trust. An access switch's DHCP server-message policy operates at Layer 2 and does not change the routing table's destination matching rules. A port may carry clients in an IP subnet regardless of whether it is trusted for DHCP replies.

DHCPDISCOVER is the client's initial broadcast seeking a server, and is normally allowed from untrusted user-facing ports so legitimate address assignment can work. DHCP snooping blocks unauthorized server responses and may rate-limit requests, but it does not inherently prohibit all client discovery messages. Blocking every discover would defeat the intended DHCP service.

Deleting an entire IPv4 routing table is neither necessary nor a normal safe way to move one static host route. Connected and dynamic routes represent independent reachability that other networks depend upon. The task is to change one specific /32 destination's old next hop while preserving the unrelated /24, so target only the obsolete configuration entry.

NTP servers synchronize network clocks and are not tied to the configured destination of an individual IPv4 static route. Changing a next hop does not require removing time sources, and doing so could degrade log correlation or authentication operations. Retain existing NTP settings and validate the selected routing-table entry instead.

The unrelated /24 route must remain available for other hosts according to the scenario. Deleting it would disrupt reachability for many addresses and would not specifically clean up the old /32 next-hop statement. A host route can be changed independently, with the broader prefix continuing to serve its established destinations.

spanning-tree vlan 999 root primary is a switch-level spanning-tree root election convenience setting, not the native VLAN classification of a trunk. Although both mention VLAN 999, STP bridge role and untagged frame handling are separate functions. Changing bridge priority could alter path selection without fixing an 802.1Q native VLAN mismatch.

switchport voice vlan 999 identifies a voice VLAN on a suitable user access interface and often interacts with telephone discovery. It does not set the native VLAN for an interswitch 802.1Q trunk. Applying a voice VLAN command would not make the trunk interpret untagged frames as VLAN 999 at both ends.

switchport access vlan 999 assigns the untagged data VLAN of an access-mode port and does not configure native VLAN handling for a multi-VLAN trunk. Access and trunk port roles have different operational behavior. An access VLAN command on a trunk interface cannot substitute for the explicit native VLAN setting that the question requests.

Sixty-two usable addresses correspond to a conventional /26, which has six host bits and 64 total addresses. The supplied mask is /27, so the host portion has one fewer bit and half as many total values. Choosing 62 would overestimate the space available for clients on the specified subnet.

Thirty-two is the total address count for a /27 rather than the conventional usable-host count. Two addresses have special network and directed-broadcast roles in ordinary IPv4 multiaccess allocations, leaving 30. When planning clients, distinguish the full block size from how many distinct hosts can be assigned addresses.

Thirty-one is not the normal count of assignable addresses in a /27. Reserving only one endpoint ignores the network and broadcast address roles under the ordinary subnet model. For this specified host's 192.168.118.0–.31 block, usable values are.1 through.30, exactly 30 addresses.

The display order or alphabetical text of an Ethernet interface description is administrative metadata, not an input to OSPF interface cost. An operator may use descriptions to document 100-Mb/s and 1-Gb/s links, but editing the text will not change route metrics. Inspect actual interface bandwidth and OSPF reference settings.

An STP root bridge MAC identifies part of Layer 2 bridge election state and does not determine OSPF link cost on a routed Ethernet path. Layer 2 path changes could affect reachability, but cost calculations are based on OSPF configuration and bandwidth assumptions. The root bridge's address is not a substitute for the protocol metric formula.

DHCP client count affects address-pool consumption and perhaps traffic demand, but not the default OSPF interface cost calculation. A link can have many or few clients while advertising the same configured routing metric. If capacity pressure requires a deliberate traffic-engineering preference, change supported OSPF cost settings rather than relying on dynamic DHCP lease counts.

Ansible can manage network devices through supported modules, SSH/CLI and APIs; it is not limited to DNS lookups. It is commonly used for templated IOS configuration, validation and operational tasks. The proposal misunderstands Ansible's device automation capability and would unnecessarily rule out one of the tools already selected for that purpose.

Neither Terraform nor Ansible requires one permanently shared plaintext device password. Production workflows should use scoped identities, encrypted secret storage, key-based or supported token authentication, and audited access. A common static credential across all devices would increase compromise blast radius and undermine accountability, so it is the opposite of a good integration pattern.

STP BPDUs are data-link control frames exchanged by switches, not the mandatory output of Terraform infrastructure definitions. Terraform may automate supported resource settings, but it does not replace the switch's spanning-tree protocol implementation or need to transmit BPDUs itself. Assign each automation tool the appropriate management layer rather than confusing control-plane packets with infrastructure provisioning.

An STP root on a different branch VLAN influences loop-free Layer 2 forwarding there, not the Internet firewall policy for a static translated service on TCP 8443. It could matter in an unrelated local reachability problem, but no evidence points to a remote root election. Focus on inbound packet filtering and correct destination translation first.

An internal host's DNS preference may affect how clients resolve names, but an inbound public TCP connection to a statically translated IPv4 service depends on NAT, routing and security policy. The stated port 8443 is a transport-layer endpoint, not a DNS resolver setting. Check whether the connection reaches the edge before investigating the host's name-resolution preferences.

CDP advertises neighbor device information and platform identity to compatible connected Cisco devices. An incorrect CDP display might complicate inventory, but it does not determine whether firewall rules allow Internet clients to reach a NAT-mapped server. Diagnose access-policy counters and actual TCP connection attempts rather than the router's neighbor description.

SSH normally uses TCP destination port 22, not UDP port 22. Although the source, destination and numeric port look plausible, selecting UDP would not allow the intended SSH handshake. An extended ACL requires correct protocol and port matching, so protocol type is a real part of the security decision, not a cosmetic field.

permit tcp any host 192.0.2.10 eq 22 allows SSH from every source address that reaches the policy point, not only from the authorized management host. It therefore violates the source restriction even though destination and port are correct. Use host 198.51.100.23 instead of any to limit access to the specified administrator.

This ACE places the managed device 192.0.2.10 in the source position and 198.51.100.23 in the destination position, reversing the direction of the requested administrative connection. With a destination-port-22 test, it describes possible outbound traffic from the managed host rather than inbound SSH to it. Source/destination order must match the actual packet flow.

RSTP port role and state selection does not require each switchport to acquire a DHCP lease. Bridged Ethernet ports can participate in RSTP independently of IP addressing, and many operate with no interface IP at all. A discarding alternate is therefore explained by loop-prevention topology logic, not an unfinished address lease.

An alternate port is not the currently selected root port and does not have to forward every data frame. Its purpose is to preserve a backup rootward path while the loop-free spanning tree uses other roles. Forcing it to forward alongside the active path without protocol coordination could create the loops RSTP is designed to prevent.

A designated port is generally responsible for forwarding on its assigned segment once the appropriate RSTP state and agreement conditions are satisfied. It is incorrect to assume every designated port must discard all frames. The captured combination of a forwarding designated port and discarding alternate is consistent with normal redundant topology protection.

A WAN router at another location may route traffic after frames leave the access network, but it does not negotiate the endpoint's local Ethernet link with its access-switch port. An OSPF area can govern routed paths between routers, not the electrical or optical health of a workstation uplink. Begin diagnostics at the actual connected switch and NIC.

A recursive DNS server resolves application hostnames and cannot establish the Ethernet physical link or populate the access port's receive counters directly. Name resolution might be tested after confirming IP connectivity, but it is unrelated to seeing frames arrive at a specific switchport. Check link status and packet/byte counters locally.

A wireless LAN controller manages associated AP policies in supported wireless deployments, not the basic cabled Ethernet interface between a local wired endpoint NIC and access switch. Its software image might affect wireless clients, but the question describes an endpoint-facing physical access port. The switch PHY and endpoint network adapter are the relevant link participants.

A /48 route covers an entire collection of IPv6 /64 subnets and is far broader than the stated single-server requirement. Installing it toward the specified next hop could divert traffic for many unrelated destinations. A host-specific static prefix is safer when the routing policy applies only to one remote unicast address.

ff02::1 is an IPv6 all-nodes link-local multicast address, not a route for a remote unicast server. Link-local multicast scope is not forwarded normally across routers, so it cannot be used to reach the specified global unicast host. Choose an exact unicast destination prefix and valid next-hop routing instead.

An IPv6 /0 default route covers every destination lacking a more-specific installed route, potentially redirecting large amounts of unrelated traffic. It is appropriate as a general fallback, not when the operator must restrict forwarding to a single remote host. A /128 entry expresses the specified narrow routing scope without changing every unknown destination's next hop.