Cisco 200-301 Exam Dumps, Practice Test Questions

A VLAN mask cannot show whether the WLAN rejected the client in authentication or association.

Power evidence may establish AP uptime, but not the particular client security/policy rejection on this WLAN.

Changing the WLAN identity is disruptive and does not provide the requested read-only GUI evidence for association/security troubleshooting.

Static routes use the S source code; the displayed C route is learned from an operationally connected interface.

OSPF routes use the O family of source codes, so this directly connected example is not OSPF learned.

A gateway of last resort is an installed default route; the displayed C prefix is the local directly attached /24.

Connected routes use C and have a directly attached interface; the S indicates a static administrative route.

The displayed source code is not O; OSPF also normally has AD 110, distinct from this configured static entry.

RIP uses R with a default administrative distance of 120, not the S code shown for a static route.

Connected routes use C; an OSPF-learned route can point via a neighboring router instead.

Static routes use S and a default administrative distance of 1, whereas the example shows OSPF with default AD 110.

RIP uses R, not O, and has a different default administrative distance; the displayed code identifies OSPF.

The destination prefix identifies the remote network whose traffic matches the route, not the address of the adjacent forwarding router.

Administrative distance 110 ranks the route source at RIB selection; it is not an IP address for the adjacent next hop.

The outgoing interface names the local router port used to transmit, not the adjacent router IP address itself.

A route code only indicates its source; an unrelated OSPF route cannot send traffic to a destination outside its prefix.

Connected subnets represent directly attached networks; they do not replace the least-specific installed default for arbitrary unmatched remote destinations.

A specific route is selected only when it matches the packet destination; the described packet has no such more-specific match.

The prefix is /16, shown in the destination network, not in the first position inside [110/20].

The OSPF metric is the second bracket value, 20; the first position is administrative distance.

IOS normally reports route age after the next-hop or preceding the interface, separate from the [AD/metric] pair.

Administrative distance occupies the first bracketed position, while the second is the routing protocol metric.

The /16 prefix length is shown after the destination address, separate from the pair [110/20].

The next-hop address follows the via keyword; the second bracketed value is not an IP address.

110 is the OSPF administrative distance in a typical IOS route display; an IPv4 address has only 32 bits, so that number is not a mask length.

OSPF cost is a route metric unrelated to the number of high-order address bits retained in the destination prefix.

A /32 would match a single IPv4 host address; the displayed /24 leaves eight host-address bits variable.

The via address is the next-hop IPv4 address, not the local GigabitEthernet interface.

The prefix is the destination network matched by routing, not the port used to send the packet.

A route source code tells how the route was learned, not the explicit GigabitEthernet0/1 egress reported in the entry.

OSPF entries use O-related codes, and local interface host routes use L; neither is represented by S*.

Connected prefixes use C and local host addresses use L, not a static candidate-default code.

RIP routes use R and the asterisk does not imply a dynamic protocol failover policy.