Cisco 200-301 Exam Dumps, Practice Test Questions

The router may forward traffic but is not the user device that initiates the connection with its own ephemeral source port.

A proxy may establish distinct connections but is not the stated original workstation endpoint.

Inspection or filtering does not mean the device originated the workstation’s application flow.

An Ethernet trunk transports each VLAN separately at L2; it does not select a route between their IP subnets.

Authentication can authorize access but cannot act as their required routed IP gateway by itself.

Spanning Tree controls Layer 2 loops and cannot provide IP inter-VLAN forwarding without Layer 3 routing.

Normal same-subnet Ethernet traffic follows VLAN MAC forwarding rather than unnecessary intersubnet routing.

NAT translation is not the ordinary same-VLAN Layer 2 delivery mechanism.

OSPF installs IP routes, not switch egress ports for same-VLAN Ethernet frames.

Transmit power may alter the RF coverage, but successful association already occurs; it cannot move bridged data into the required wired VLAN.

An unrelated Internet-edge route operates after Layer 2 delivery and does not correct the AP's mismatched wired VLAN placement.

The AP provides the wireless radio association service; a PoE injector supplies electrical power and cannot bridge 802.11 client frames into the wired VLAN.

Optical capacity does not supply the RJ-45 IEEE 802.3 power expected by the desk phones.

Frame forwarding does not guarantee electrical power to phones without adapters.

Route preference is unrelated to supplying negotiated PoE wattage per access port.

A tap only observes traffic and cannot independently decide whether a supplicant is authorized.

PoE provides electrical power, not a credential-validation or authentication service.

MAC learning provides Ethernet forwarding state, not verification of the client’s 802.1X credentials.

Collapsing access and distribution would leave the core separate, contrary to the stated two-tier campus hierarchy.

Wireless client connectivity can reside at access, but that does not describe which hierarchy tiers are merged in a collapsed-core model.

WAN edge services are not the two campus hierarchy functions that Cisco combines for this smaller deployment.

Two-tier collapsed-core combines distribution and core functions and therefore omits the distinct backbone tier requested for this large campus.

Leaf-spine is a common data-center fabric design; it does not create the explicitly described three hierarchical campus roles.

Redundant access-to-access trunks do not supply the separate distribution and core transit hierarchy required for many campus distribution blocks.

The campus hierarchy can connect many buildings but does not guarantee the requested consistent leaf-to-spine-to-leaf rack path with equal-cost alternatives.

A collapsed core is a compact campus design and does not describe the distributed rack fabric with multiple spine paths specified here.

A rack-switch daisy chain makes hop count grow with physical placement and creates intermediate dependencies rather than uniform two-hop fabric connectivity.

An access VLAN is one local broadcast segment and does not itself establish provider transport between two geographically separated cities.

Collapsed-core describes internal switching hierarchy within a campus, not the carrier interconnection required between separate city sites.

An 802.1Q trunk extends VLAN carriage on a local Ethernet path; by itself it is not a subscribed cross-city carrier service.

Mesh WAN topology specifies intersite transport and is unrelated to consolidating local router, LAN ports and Wi-Fi into one retail appliance.

Dedicated three-tier campus hardware conflicts with the stated absence of separate distribution and core devices at this single small site.

An AP bridges wireless clients into a wired VLAN but does not itself necessarily supply the integrated broadband routing and multiple switched LAN ports required.